[{"id":"d4a78dd7975b","task":"add","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"Edit the file solution.py so the function add(a, b) returns the sum a + b. Make the edit to the file now.","files":["/ws/solution.py"]},{"id":"1c8d099f49d0","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"225c87294daa","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"32298c565501","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"3c6db1126689","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"4c787b8345aa","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"4f38ef9523f8","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"80f6016bb61a","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"8bb23a36224b","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"8c374ec9410f","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":8,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py","/ws/test_affine_cipher.py","/ws/debug_affine.py","/ws/debug_test.py","/ws/debug_specific.py"]},{"id":"955b0fafb9c7","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"99db15a39fa1","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"a270133b57dd","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"ac260e6683e8","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"be72fc8343d2","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"bec0ff98df9d","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"c028406c14f5","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"c19c55fffd1d","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"ca3ac7f75e1c","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"cb843b96da1d","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py","/ws/test_affine_cipher.py"]},{"id":"d163d6d8761a","task":"ap_affine_cipher","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"d38fb6e4f958","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"d7d7380e2bf3","task":"ap_affine_cipher","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCreate an implementation of the affine cipher, an ancient encryption system created in the Middle East.\n\nThe affine cipher is a type of monoalphabetic substitution cipher.\nEach character is mapped to its numeric equivalent, encrypted with a mathematical function and then converted to the letter relating to its new numeric value.\nAlthough all monoalphabetic ciphers are weak, the affine cipher is much stronger than the atbash cipher, because it has many more keys.\n\n[//]: # \" monoalphabetic as spelled by Merriam-Webster, compare to polyalphabetic \"\n\n## Encryption\n\nThe encryption f","files":["/ws/affine_cipher.py"]},{"id":"048b574a417b","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"04e5a2b06ecf","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"07c57c56e744","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"092a66ae820b","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"0b019ec6c26f","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py"]},{"id":"0ee254b6879c","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py"]},{"id":"11704fd6690d","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py"]},{"id":"126c4d0ccb31","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"14e60482db3e","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"14fe03aea2e8","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"1532d5aef10d","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"1b4c434bd4c3","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"1c4b412dc880","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"22bd3fccd9cc","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"23dcb5e9b91d","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"271a30eafa10","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"2739ff7d9ada","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"28980e3187f4","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"2a0282ef0318","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py","/ws/verify.py"]},{"id":"2b979bf21b1a","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"350fbd914cb5","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"38d874e2477e","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"39026333be5d","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"39044930f2a9","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py"]},{"id":"414b33842f54","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"41bfd9a0b7ca","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"46853a6ba1de","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"4a8a885fff86","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"5a4345324a5f","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"5a4b284c3c32","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"5be2865d2b28","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"5d49ee5924bf","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"60794c803d13","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"612a9229307f","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"62c06b3e4cf9","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"6b22ca6a3b2b","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"6b31ac8bda6e","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"701056c226d3","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py"]},{"id":"7071a0134374","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"73a8521d42b9","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"798da8d2ee73","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py","/ws/test_beer_song.py","/ws/debug.py"]},{"id":"7f904b9acd0c","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"803f72967ffa","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"84e3722613f9","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"86ec7e70114f","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"8f9127c27814","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"96f419dc663c","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"9b71ef7f765b","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a0cc8dbefd06","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a201380aca50","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a2fd1b217b14","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a3db37a1ce79","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a57dbc076bd1","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a614bdd4aa5c","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"a9a9493dedf5","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"ae10dd5770d5","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"aeb526a47686","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"af68c48171fd","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"afb6f272f504","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"b414459a6582","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"b6b82ef958fc","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"b78309235e75","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"bae49c18ddb9","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"bdda33f9adc2","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"c683c316fc0e","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"c6f278ac1cda","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"c956c4b94547","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"ced6ddd429f6","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"d26661bf9b94","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"d4a72023b41b","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"da344af59974","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"da8b803c29f9","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"dd8dbe660012","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"de66b4454011","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"dec85c3e3254","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"df22fe77c454","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"ebf9440e4ed9","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"ec7d78a11300","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"ee4ecdd104ba","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"eeb035da3536","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"ef2fc520a1ab","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"f2420e18c877","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"f9e0ab056876","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"fbaa3771e386","task":"ap_beer_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"fc2b67647ac9","task":"ap_beer_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that beloved classic, that field-trip favorite: 99 Bottles of Beer on the Wall.\n\nNote that not all verses are identical.\n\n```text\n99 bottles of beer on the wall, 99 bottles of beer.\nTake one down and pass it around, 98 bottles of beer on the wall.\n\n98 bottles of beer on the wall, 98 bottles of beer.\nTake one down and pass it around, 97 bottles of beer on the wall.\n\n97 bottles of beer on the wall, 97 bottles of beer.\nTake one down and pass it around, 96 bottles of beer on the wall.\n\n96 bottles of beer on the wall, 96 bottles of beer.\nTake one down and pass i","files":["/ws/beer_song.py"]},{"id":"00ebca802b1b","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"050ec4c4d5db","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py","/ws/debug_book_store.py"]},{"id":"16ab3d53f803","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"1bb8813094cc","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":8,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py","/ws/test_solution.py"]},{"id":"2dc9b0d4e69b","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"3654d233a40b","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"3e8a9f9bfaa4","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"58e1111cce1b","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"7f17b91321cc","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"b8e1807e5c25","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"be539c7b8faf","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"c698fc872810","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py","/ws/test_book_store.py"]},{"id":"d38b9c70f0e1","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":10,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"d3a4aefbe505","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"d590b19c8ce9","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":5,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py","/ws/test_book_store.py"]},{"id":"d76451bce55d","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"d7b329cd5a29","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"dacaa038a214","task":"ap_book_store","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py"]},{"id":"daf192302c3f","task":"ap_book_store","family":"aider","split":"dev","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nTo try and encourage more sales of different books from a popular 5 book series, a bookshop has decided to offer discounts on multiple book purchases.\n\nOne copy of any of the five books costs $8.\n\nIf, however, you buy two different books, you get a 5% discount on those two books.\n\nIf you buy 3 different books, you get a 10% discount.\n\nIf you buy 4 different books, you get a 20% discount.\n\nIf you buy all 5, you get a 25% discount.\n\nNote that if you buy four books, of which 3 are different titles, you get a 10% discount on the 3 that form part of a set, but the fourth book still ","files":["/ws/book_store.py","/ws/test_book_store.py","/ws/test_additional.py"]},{"id":"0491954a6a03","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py","/ws/test_bottle_song.py"]},{"id":"0573d1de1d4f","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"06c40be352ef","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"09f2ecc4dff0","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"0c57d1868b09","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":5,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"0f9bfd3b379e","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"116d7b962895","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"12272678e4ff","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"12b138df1dca","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"12f64b3057be","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"13fbcaa3dbd7","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"198cddadf00c","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"1b7dca193642","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"1fd71d039a74","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"20172dabc54e","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"2166af83e437","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"230fc956cb80","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"2415ee8fcc51","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"2667eec4c0e6","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"28bf1515ba3c","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"2a8f806affad","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"3106ccf546f7","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"3307b83c6eae","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"3a3d54a9d716","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"3cfb313cfcb5","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"3ed70f3f9c7b","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"40adf0c42070","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"41737fabb6a7","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"43ba8ee23904","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"45784db8089a","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"4869614ddc97","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"4c586ef3d9b7","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"4d082f18109a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5066a02b97cd","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"52e4dc41a120","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"537d749e799c","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"570fd3e435ab","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"593e4beef353","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5c2e7b57c23d","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5c496ff262ff","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5d544809ceca","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5dc741bf106a","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5e93ccb5b443","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"5f3edd2b22ea","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"60a529daf35a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"62efaa93b503","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"6416b30e0bb7","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"64d78a839802","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"663639ab9f0a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"683ed1fced2c","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"6b397a648569","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"6c1dc1747d38","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"6c2d3868860d","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"6d597558382f","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"6ec31c6b0fb4","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"7235d37974cb","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"75d289be7419","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"76bc5a51fcfc","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"799336ad2a53","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"7b9ed05675d7","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"7de35ec3ada9","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"7ecaebbb641d","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"8142110bf1bf","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"81f65e22d7da","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"82a0874bfc9d","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"8578716fe493","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"879f6bd60ad7","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"8825361cdbe2","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"88ca6eb36524","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"8d906c926de6","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"8f023516c613","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"8f27687e1830","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"92593af5054a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"94ad730c391a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"99150a589237","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"996e437eb090","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"9a69f4fd0a02","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"9b5a86336236","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"9e7dcb67cb90","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"a0cdd2fd2459","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py","/ws/test.py"]},{"id":"a12e28917182","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"a181a0809778","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"a371ad6522f4","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"a3787801db1b","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"a5d6f0c7a3e2","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"a99be7e03247","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"b0f235d8e369","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"b4317510da3b","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"b4d97d16ff3f","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"b8ec3e39d36f","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"ba10656c3de6","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"baa54e60bfe4","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"bc67c94a843a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"bd684be4985d","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"c1c69096efd5","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"c49974811045","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"ca9858351eaf","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"d2b87e9dc4b1","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"d76c22c4e602","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"d971f3b10b8e","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"d9b654a4413a","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"de4d349ad709","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"dea19eb4fade","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"df42c3218923","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"dff1d06b28ca","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"e36dc59984e5","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"e3ffa1dffad8","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"e50ab88bc2ee","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"e55808aa4d64","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"ea4bb0923925","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"ea827bf4737d","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"eb32d62d513b","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"ec44723d92fc","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"f1b7d7ce06f0","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"f2404198e959","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"f2dd2742d935","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"f4196d845790","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"f4c5936c3a4c","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"f885df369440","task":"ap_bottle_song","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"fcc40dd0c365","task":"ap_bottle_song","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nRecite the lyrics to that popular children's repetitive song: Ten Green Bottles.\n\nNote that not all verses are identical.\n\n```text\nTen green bottles hanging on the wall,\nTen green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be nine green bottles hanging on the wall.\n\nNine green bottles hanging on the wall,\nNine green bottles hanging on the wall,\nAnd if one green bottle should accidentally fall,\nThere'll be eight green bottles hanging on the wall.\n\nEight green bottles hanging on the wall,\nEight green bottles hanging on the wall,\nAnd if","files":["/ws/bottle_song.py"]},{"id":"00e867711798","task":"ap_bowling","family":"aider","split":"dev","agent":null,"nEdits":13,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py","/ws/test_bowling.py","/ws/debug_bowling.py"]},{"id":"19a695c64b91","task":"ap_bowling","family":"aider","split":"dev","agent":null,"nEdits":10,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py","/ws/test_bowling.py","/ws/test_comprehensive.py"]},{"id":"2e20c25a53da","task":"ap_bowling","family":"aider","split":"dev","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py"]},{"id":"6861b18a40a6","task":"ap_bowling","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py","/ws/test_bowling.py"]},{"id":"8f1d963d8e1d","task":"ap_bowling","family":"aider","split":"dev","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py"]},{"id":"b85a29701e89","task":"ap_bowling","family":"aider","split":"dev","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py","/ws/test_bowling.py","/ws/debug_test.py"]},{"id":"cf9cb4c9218b","task":"ap_bowling","family":"aider","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py"]},{"id":"e8966d7c63e7","task":"ap_bowling","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nScore a bowling game.\n\nBowling is a game where players roll a heavy ball to knock down pins arranged in a triangle.\nWrite code to keep track of the score of a game of bowling.\n\n## Scoring Bowling\n\nThe game consists of 10 frames.\nA frame is composed of one or two ball throws with 10 pins standing at frame initialization.\nThere are three cases for the tabulation of a frame.\n\n- An open frame is where a score of less than 10 is recorded for the frame.\n  In this case the score for the frame is the number of pins knocked down.\n\n- A spare is where all ten pins are knocked down by the ","files":["/ws/bowling.py"]},{"id":"0288ebe519ae","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"03fcde5f1168","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":9,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/test_comprehensive.py","/ws/debug_2x2.py"]},{"id":"0cbaaa3912dc","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":9,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_connect.py","/ws/debug_connect2.py"]},{"id":"0e9168b32517","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"11611ea10b00","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"1e8c961c6250","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"1e9f74ee7d58","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"2518b7b3892e","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":11,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_test.py"]},{"id":"26a2c796c115","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":6,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"2c50cb16daee","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"2f60c33e6dfa","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"341f37609572","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"356c4b39f423","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"3cebb8a66b1a","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":12,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_connect.py","/ws/debug_simple.py","/ws/debug_board3_4.py","/ws/debug_bfs.py","/ws/debug_comprehensive.py"]},{"id":"462ba521568c","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"46dd7e3b9ca6","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"4e6c628d0c1c","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":19,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_test.py","/ws/debug_test2.py","/ws/debug_hex.py","/ws/debug_parsing.py","/ws/test_simple.py","/ws/debug_vertical.py","/ws/debug_hexagonal.py","/ws/test_final.py"]},{"id":"4ed6471d0de2","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"50190612f975","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"5618232ef6aa","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"570ab2f567fa","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"5e68142a5cbc","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"5f7c3cdae3b8","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"5fe5c2db2ce1","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"637536411159","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"63b3dbb0aabf","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py"]},{"id":"64d8b7067822","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"69187b4405cf","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"6a5e6c289525","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":10,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug.py","/ws/debug_x.py","/ws/debug_complex_o.py","/ws/final_test.py"]},{"id":"6ace2246b6c1","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_solution.py","/ws/debug_solution.py","/ws/debug_detailed.py"]},{"id":"6cfd4d2f1373","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"6edd3562e399","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"7216366efde1","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"744ae6bf9042","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py"]},{"id":"78d253d37716","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"796c8f9b9aec","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"84cf1792bb71","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":8,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_x.py"]},{"id":"aa8d122dbde3","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":7,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_test6.py"]},{"id":"b487e9476178","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":12,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_x.py","/ws/test_example.py","/ws/debug_example.py","/ws/test_edge_cases.py","/ws/debug_complex_o.py","/ws/debug_simple.py"]},{"id":"b896e846bf17","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"bf4c3ede39e5","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":13,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug.py","/ws/debug2.py","/ws/test_example.py"]},{"id":"c68e6d482f3b","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug.py"]},{"id":"ca7568c410b4","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"cbd0b2ed574d","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"d2ef1bfa51c2","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"d70b5312ce12","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"d8945e192ab9","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py","/ws/debug_test.py"]},{"id":"dd55be92ad28","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"df828b714595","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"e5016ee85cbd","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"e5e32dc07efe","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"ed1d57e96cd8","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_connect.py"]},{"id":"f19a0cd27f60","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":9,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py","/ws/test_hex.py","/ws/debug_hex.py","/ws/test_neighbors.py","/ws/debug_bfs.py"]},{"id":"f46c898c2941","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"f4c99d46223a","task":"ap_connect","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"f7a0512123e5","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"fce5f89e8e87","task":"ap_connect","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCompute the result for a game of Hex / Polygon.\n\nThe abstract boardgame known as [Hex][hex] / Polygon / CON-TAC-TIX is quite simple in rules, though complex in practice.\nTwo players place stones on a parallelogram with hexagonal fields.\nThe player to connect his/her stones to the opposite side first wins.\nThe four sides of the parallelogram are divided between the two players (i.e. one player gets assigned a side and the side directly opposite it and the other player gets assigned the two other sides).\n\nYour goal is to build a program that given a simple representation of a boa","files":["/ws/connect.py"]},{"id":"2030918d03c6","task":"ap_dominoes","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py","/ws/test_dominoes.py"]},{"id":"31c6d131fcf5","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"32b3d0d0a1da","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"3e3a7a03b9d5","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"6212c0400e80","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"7255b45c518c","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"7d14bb7bf9dc","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"81e3a9ffdf41","task":"ap_dominoes","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"a34c715dc7d7","task":"ap_dominoes","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"e745f95483fa","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"f03576e541ad","task":"ap_dominoes","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py"]},{"id":"f56fca9223bb","task":"ap_dominoes","family":"aider","split":"dev","agent":null,"nEdits":11,"promptPreview":"# Instructions\n\nMake a chain of dominoes.\n\nCompute a way to order a given set of dominoes in such a way that they form a correct domino chain (the dots on one half of a stone match the dots on the neighboring half of an adjacent stone) and that dots on the halves of the stones which don't have a neighbor (the first and last stone) match each other.\n\nFor example given the stones `[2|1]`, `[2|3]` and `[1|3]` you should compute something\nlike `[1|2] [2|3] [3|1]` or `[3|2] [2|1] [1|3]` or `[1|3] [3|2] [2|1]` etc, where the first and last numbers are the same.\n\nFor stones `[1|2]`, `[4|1]` and `[2|3","files":["/ws/dominoes.py","/ws/test_dominoes.py","/ws/debug_dominoes.py","/ws/simple_test.py","/ws/detailed_debug.py","/ws/comprehensive_test.py","/ws/degree_analysis.py"]},{"id":"02b994653ed6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"02d99ba47512","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"05e2a3add19b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"07aeca0bbaf8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"088059bcbed5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"0999df735916","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"0a1aa7ddae5b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":8,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"0b8ae10ee4f6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"0cb46e09b466","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"0d8132569a17","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"0e3d7d626ed9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"0e584f20e842","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"0e760854ac74","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"0e780d51c401","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"0e86a7f3a8cc","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"0f1f1b096225","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"0f7518d43b69","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"0ff10b42c366","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"108c7656b369","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"11277f5869a4","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"11c4b91a4139","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"11fb5a118fb1","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"133f457ed14d","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1346996b3a7a","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1400dfbd0a64","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"164d07a0ae05","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1746cfe90c45","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"17d5d36342ba","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"183fcaeba1e2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1918a60be3c2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"19215f6f6ab9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"19b1f68c5291","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"19e52d0c86a5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1a1f7f40d226","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"1a9e0b8bfa18","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"1bd9203be3c6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1ca94aaf005a","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"1d56f0497474","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"1d7e7638fe3c","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1e5127e65530","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"1e5ca9461334","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"1f0b5ced003e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"1feffe8bef17","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"2053280cb827","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"20aaa7128886","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"214463b05e7c","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"227bdedfcab1","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"27d587ec3ca8","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"285a1bf96ff7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"2869f4484905","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"28e67d2baf0b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"2acf64651f8e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"2aeed7a39b60","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"2b661517d497","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"2b69ec5e18aa","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"2bec4fed5a80","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"2c0a43a6a614","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"2e5dd2f3350d","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"2e6440f30533","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"2fc12565bdc4","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"302243516552","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"31efd2ed3872","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3310929d0991","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3624a91c45ec","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"36b69d92655e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3971cc2223f9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"3a2c50140c87","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3b001be5b5e2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3b45ca61eadb","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3d200e2b70cb","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3d423ee3ba86","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3dcb2f5f1672","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"3fe0f8839090","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/dot_dsl_test_reconstructed.py"]},{"id":"40012861b622","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"42cad815e509","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"42eb5988867f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4328a73fd776","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4381e66b225a","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"456c39a7aeed","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"46d78ed39287","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"46e9f908e3fe","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/test_dsl.py","/ws/test_comprehensive.py"]},{"id":"47c66a61eb38","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"49282f51f959","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4959c95ad8e9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"49e6bf168b23","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"4a746a5351b7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4a8851600440","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"4a8a6a4ea39f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4a8f3f5fedb6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4b3e0fc5792e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"4b8ea50412f2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"4bcdb2d29d21","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"4c7dbb7e3fcc","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"4d1521e03ed0","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"4d6709db26de","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"4d98ce9983f7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"4e9708f13971","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"4f02f435937d","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/test_dsl.py"]},{"id":"4f451e6d5c84","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"500cd2263006","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"5054a8aa30af","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"50d47dec9de5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"50ed193ec906","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"5116afaa7fdf","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"53b8b576b73d","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"5570637efdb4","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"56f651ce70f4","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/test_implementation.py"]},{"id":"572515ef5153","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"5b65ff517e89","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"5b8cdfb695d7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"5c17d4718513","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"5d1438010581","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":7,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"5d2c6960b429","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"5d78f31ede13","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"5de2a27c590e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/verify_dot_dsl.py"]},{"id":"5ee4bf4a3818","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"5fc6d60cfcd8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"630bd834d545","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"6371643f33ea","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"648736784522","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"655d01daa189","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"660e0297c600","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"66c513b05e9a","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"671c611b5f75","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"67224d779564","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"675dd0d1d924","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"67a62d005aac","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"67b77e1aece5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl_test.py","/ws/dot_dsl.py"]},{"id":"67ef77678508","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/test_implementation.py"]},{"id":"692b200fba45","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"6bff1010790c","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"6cc6b78f636b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"6d663e7337c6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"6da4a50626be","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"6dd9e9c29112","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"6e86a9294433","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"6fb5d36b1f47","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"700fd049cc3b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"70ccd9c7c258","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"71b65ea4bdc5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"73c826249bc8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"74f87136d97a","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"76a0fe5d99a7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"76c2c687c0fd","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"773b10a7cad2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"7859eab016f7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"78d292c108dc","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"7a7a436b1d25","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"7fc3d60785ab","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"80c2e9718f87","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"8160c31da371","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"81ac9362af66","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"82f5101a3153","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"864694c0f2f7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"873983aa21c8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"874b4d820728","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"880364636de2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"88f264aafc18","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"8aa21260e33a","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"8d96a490109b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"8e9c34daefde","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"8ef6a2db4fc3","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py","/tmp/opencode/test_dot_dsl.py"]},{"id":"8f1624d3326e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"8f8027238800","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"8fb07ef358ab","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"901693dddcd3","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9029eca8e1c4","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9031314bc0dc","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9038a0985044","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9052e6edb8d7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"909a7815cf48","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"90a708b00bb8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"9358851f8ac9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"93d06855aa12","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"9496a9f9a3ee","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"95807c8ad709","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"97fe696a9b35","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl_test.py","/ws/dot_dsl.py"]},{"id":"989dbdb4ee9f","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"990a82ec7518","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"9ab292c37781","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9b79dced5b3e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9b9161602be2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"9c1ed6c9a424","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"9c8bf0a2bb53","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9cdad80172ae","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"9dc09a8025c0","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9f1c020a35ac","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"9f4c05daa3b1","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"9fc5ee59fc90","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py","/tmp/opencode/test_dot_dsl.py","/tmp/opencode/dot_dsl_verify.py"]},{"id":"a0df88bbcfbd","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"a1e1324e8820","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"a2a6fd920839","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"a2a9c3dd27af","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"a2f74ad3cf9b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"a303a93b7bc0","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"a3c8db2663e9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"a3daf1de7d43","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"a6ccf809d545","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"a70adb47acba","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/test_implementation.py"]},{"id":"a85b84e38609","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"ad8f78ae1025","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"af843398a57d","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"b06974a13692","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"b17d29044d3d","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"b197702d76c3","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"b204bf1d8c2f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"b2b3aefa3120","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"b305fcf3809b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"b30c9b0c3428","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"b3f0fd86fa21","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"b485917ccab7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"b57b3b7532f4","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"b9751e5a1528","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"b9ddfa90c72b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"ba1c664753fe","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"ba596bc4d88f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"ba8f05420fee","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"bab27fa30bd5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"bb7bac7d97d8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"bcf47e44e4d9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"bd9083985415","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"bdb1f96a030c","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"be0a8c11e050","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/test_dot_dsl.py"]},{"id":"bf9784f9225e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"c15f8e56b274","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Impl","files":["/ws/dot_dsl.py"]},{"id":"c1d21b7208da","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"c262753685c3","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"c442f146e8fd","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"c4575e8b8c24","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"c4694a55115e","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"c4760d79fed6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"c538fcb91abe","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"c612ee0b4f81","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"c7c3701980e6","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"ca6554f2c91e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"cbb7fdb79800","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"cbddbac97dc5","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/dot_dsl_test.py"]},{"id":"cdc9b55e7553","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"cdfbdcd6d99e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"ce7c9bf01ab8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"cebcf5882abc","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"ced21eb76c72","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"cfdf31e91255","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"d0ddbbd3fc95","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"d3bd0f83d603","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"d54559212221","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"d82607e7d8e1","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"d85276c412bf","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl_test.py","/ws/dot_dsl.py"]},{"id":"d9717a229877","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"da53de0e6e9c","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"da87256f1a69","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"dbca1f9c4331","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"dbcc3d497706","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"dc202f0381fc","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"dcaf26d14448","task":"ap_dot_dsl","family":"aider","split":"test","agent":null,"nEdits":8,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/test_implementation.py","/ws/debug_test.py"]},{"id":"dd84bd4ce9e9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"ddbc80fc10a4","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"de0e4a93c2c8","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"df00f06a6a8f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"dfb187bddc97","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"dfe5d071c626","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"dfffa4dbf7e0","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e0b7cf5dac6f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/dot_dsl_test.py"]},{"id":"e1036765b3c1","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e2f49a92d5a9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e3289df12f01","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e35156d1e2c1","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e5cc740cad36","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/ws/dot_dsl_test.py"]},{"id":"e605c956c7de","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"e648b016f1b3","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e6b12afb092e","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e85d0ac74366","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e86ee06b2a30","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"e8b56299e76f","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"e9782669e432","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"eb46ba3a7538","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"eb5c624acd31","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"ec3e3728d9f9","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"ecba29f7e098","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"eefa1e664194","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":6,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"ef58de60e6f2","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"f096df8a1413","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"f15bc2e2a577","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"f248109ab5f7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"f4da2856bfff","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"f561da280f0b","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"f761b0dc2e57","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py"]},{"id":"f79071a90adf","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"f7927d594459","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/dot_dsl_test.py"]},{"id":"f8ca54deb2dd","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"f9f9c0c2b022","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — reject malformed input\n\nContinue `dot_dsl.py` from the previous segment. Building a `Graph` from\nwell-formed input already works — build on it, keep it working. Now make\n`Graph(data)` VALIDATE its input and raise an error with a meaningful message\nwhen it's malformed:\n\n- the `data` itself is not a list of tuples,\n- an entry's tuple is the wrong length for its marker,\n- an attribute / node / edge entry is otherwise structured wrong,\n- an entry has an unknown marker.\n\nRaise the error type the situation calls for (a `TypeError` for a wrong-shaped\ndata structure, a `ValueError` ","files":["/ws/dot_dsl.py"]},{"id":"fae1dc0b1e04","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nA [Domain Specific Language (DSL)][dsl] is a small language optimized for a specific domain.\nSince a DSL is targeted, it can greatly impact productivity/understanding by allowing the writer to declare _what_ they want rather than _how_.\n\nOne problem area where they are applied are complex customizations/configurations.\n\nFor example the [DOT language][dot-language] allows you to write a textual description of a graph which is then transformed into a picture by one of the [Graphviz][graphviz] tools (such as `dot`).\nA simple graph looks like this:\n\n    graph {\n        graph [bgcol","files":["/ws/dot_dsl.py","/tmp/opencode/dot_dsl_test.py"]},{"id":"ff6bae7931af","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"ff7059acd16c","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"ffcfd321c9c7","task":"ap_dot_dsl","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — build the graph from well-formed input\n\nYou are implementing `dot_dsl.py` incrementally. This segment covers ONLY\nbuilding a `Graph` from WELL-FORMED input; a later segment adds rejecting\nmalformed input, so don't worry about validation/errors yet.\n\n`dot_dsl.py` already defines the `NODE`, `EDGE`, `ATTR` markers and `Node` /\n`Edge` / `Graph` classes (with structural equality). Implement `Graph(data)` so\nit builds a graph from `data`, a list of tuples whose first element is a marker:\n\n- `(ATTR, key, value)` → a graph-level attribute,\n- `(NODE, name, attrs)` → a node (`attrs` ","files":["/ws/dot_dsl.py"]},{"id":"2697b68c4515","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"307c502e3710","task":"ap_food_chain","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"54f02a5b63ee","task":"ap_food_chain","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"587d5d64936d","task":"ap_food_chain","family":"aider","split":"dev","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"639eace225e4","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"71729f0f41eb","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"74f191c31409","task":"ap_food_chain","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"824e6f07d139","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"8f4200993255","task":"ap_food_chain","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"b7a22acd6e4a","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"c168a2a3b8a6","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"e7ec2fd243c6","task":"ap_food_chain","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"fd4170f16dbd","task":"ap_food_chain","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGenerate the lyrics of the song 'I Know an Old Lady Who Swallowed a Fly'.\n\nWhile you could copy/paste the lyrics, or read them from a file, this problem is much more interesting if you approach it algorithmically.\n\nThis is a [cumulative song][cumulative-song] of unknown origin.\n\nThis is one of many common variants.\n\n```text\nI know an old lady who swallowed a fly.\nI don't know why she swallowed the fly. Perhaps she'll die.\n\nI know an old lady who swallowed a spider.\nIt wriggled and jiggled and tickled inside her.\nShe swallowed the spider to catch the fly.\nI don't know why she sw","files":["/ws/food_chain.py"]},{"id":"136cf4316301","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"4743ba667a7e","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"6c4806bdbecd","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py","/ws/test_forth.py"]},{"id":"6c5022c1dc3e","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"75cb382c4369","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"7f19654c8647","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":12,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py","/ws/test_forth.py","/ws/debug_test.py","/ws/debug_words.py","/ws/debug_definitions.py","/ws/debug_recursive.py"]},{"id":"823e6b6f3274","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"88e1b82e7e3f","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":10,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py","/ws/test_forth.py"]},{"id":"c4081440634f","task":"ap_forth","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"c4ad1ed01162","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"c51718043857","task":"ap_forth","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"ceda502d3198","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"cf3837a84c48","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"d1ce586121b5","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py"]},{"id":"e937a5102c4b","task":"ap_forth","family":"aider","split":"dev","agent":null,"nEdits":18,"promptPreview":"# Instructions\n\nImplement an evaluator for a very simple subset of Forth.\n\n[Forth][forth]\nis a stack-based programming language.\nImplement a very basic evaluator for a small subset of Forth.\n\nYour evaluator has to support the following words:\n\n- `+`, `-`, `*`, `/` (integer arithmetic)\n- `DUP`, `DROP`, `SWAP`, `OVER` (stack manipulation)\n\nYour evaluator also has to support defining new words using the customary syntax: `: word-name definition ;`.\n\nTo keep things simple the only data type you need to support is signed integers of at least 16 bits size.\n\nYou should use the following rules for the","files":["/ws/forth.py","/ws/test_forth.py","/ws/debug.py","/ws/debug2.py","/ws/debug3.py","/ws/debug4.py"]},{"id":"00bd9b621e1e","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":13,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py","/ws/test_go_counting.py"]},{"id":"1095798afefb","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"12cc5da2d135","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"14d60d0c3674","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":17,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py","/ws/test_simple.py","/ws/debug_test.py","/ws/debug_territory.py","/ws/simple_test.py","/ws/direct_test.py","/ws/new_board.py","/ws/final_test.py","/ws/error_test.py"]},{"id":"1a6c6bbcf37a","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"705018f30ed1","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"72d49e2c6972","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"807ba89c62f6","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":11,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py","/ws/test_go_counting.py"]},{"id":"88f6f3c597c8","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py","/ws/test_go_counting.py"]},{"id":"8a430d03375a","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"a2ac257f802c","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"a7e5eb68c65e","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"ae59974f9b41","task":"ap_go_counting","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"c92de1936be9","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py"]},{"id":"eeed5013c5e9","task":"ap_go_counting","family":"aider","split":"dev","agent":"a:opencode","nEdits":5,"promptPreview":"# Instructions\n\nCount the scored points on a Go board.\n\nIn the game of go (also known as baduk, igo, cờ vây and wéiqí) points are gained by completely encircling empty intersections with your stones.\nThe encircled intersections of a player are known as its territory.\n\nCalculate the territory of each player.\nYou may assume that any stones that have been stranded in enemy territory have already been taken off the board.\n\nDetermine the territory which includes a specified coordinate.\n\nMultiple empty intersections may be encircled at once and for encircling only horizontal and vertical neighbors c","files":["/ws/go_counting.py","/ws/test_go_counting.py"]},{"id":"00bd76feeeba","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"00d99b25a4bf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"0258ef042b4e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"02969b084c17","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"02df571e56b2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"02f7a1c8500c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"033315295d36","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"033c1e88114e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"035ea2c14cea","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"03973fc2f2a2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"0407b5fff6d5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"04ed1536465c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"05c09b57af76","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"06031f9980a2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"0736fc93d762","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"07d0e4a2151c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"0ac061b29744","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"0ca65e99d318","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"0d21d1025d89","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"0ee1603eb480","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"0fe7ab1c8d45","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"10082669d8b1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"10a2c8f130bd","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"115a61a0d31d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"11eee3b8fa03","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"11fbac2d4026","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"12671efab606","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"126b5510e54d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"1318531b46e0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"1387d69feabb","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_implementation.py","/ws/test_requirements.py"]},{"id":"13931f91c368","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"14859851c9f9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_roster.py"]},{"id":"15167fc87ff2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"15479143922d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"15e201a853a1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"162737fd78ed","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"1771989fea93","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"17854c8b17f7","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"1856a3744855","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"19533a5d6fd6","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"196d93bb65c0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"19a7124ebea5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"1a14dfbfe5f6","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"1b4132e45799","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"1b9edb3c2b51","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"1c35d0f307c2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"1dde64838097","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"2095a1fcd010","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"227a23bb9bc0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"22c910b2806b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"22d0a2cfdfbf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"22d65578d32c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"22dbb7c157d2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"239bb047aeb7","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"24979d5bf184","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"28af23215544","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"2908d854827d","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"2b26b44f72ca","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"2bb903f2411c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"2d8a5a764a26","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"2deed49917c9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"2e022bbd5598","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"2ee6b5648363","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"2f9f0f121d3a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"2fb26cbc958c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"301172c59869","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"30cd7613feb4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"33f1044a7bc9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"3419893bee99","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"363ac47adce4","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":5,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_roster.py"]},{"id":"36c790632968","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"37680048ce80","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"38820688b862","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"3957e9f3e1d0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"399f6195c757","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"39f8d330037a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"3cd9d27fa824","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"3cf9696b1bc4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"3dd2eed30244","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"3dfe936302d4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"3ea7dd7dc1fa","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"3eef60a2570c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"40072e82dca9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"420d21ea1eb8","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"422b0764a408","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"42f3590b3c04","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"43ebfc79b585","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"44e5d6aaabd4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"45c138807158","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"46d2bda55ea3","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"4824d9af6abc","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"493af4f8c257","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"49948807dda0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"4ad43cdc8d90","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"4af8aa3d0e6c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"4b2fbbcc0963","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"4be2c8d1115f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"4c1f46d084f0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"4c768bf70ba0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"4d65b5b4f553","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"4e8412e13d8d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"4edab5706d2e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"4eea3766da10","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"4faf48cdaea1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"4fc28d3f420f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"5169c1c4f885","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"5191a4ec097f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"51a8a2a27d52","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"51ef116b9d3d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"524846e2c521","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"53ee2d0525ee","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"5471c7094214","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"54a4725f3f10","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"55136e0bda4c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"554076c87f43","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"57f21991af52","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"5884e2e7635b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"5a2c71b2c2be","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"5cfbab2abf60","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"5dea788226da","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"5fb38c78fc70","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"5fc847a25f64","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"5fc928ba75ee","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"60338f78fc06","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"60c893ead069","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"629aa3f707d9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"63af8152c3a7","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"63e98cfa432f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"64488565c713","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"64e49a633437","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"66ea22cfcf4f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"67f625aeccbe","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"694d0788759f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"6b00314b0fc2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"6b7a1a53f292","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"6bcf816b4864","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"6dae8bfd0063","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"6f0be0fef126","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"6f8e577752d4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"706d7685bdd7","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"70979619e22e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"72d667f251d7","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_school.py"]},{"id":"73df76cc6817","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"744c6c737ec0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"7488217cbd1e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"74ac6e1fbca2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"74b4f0148bd2","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":9,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_grade_school.py","/ws/test_manual_examples.py"]},{"id":"74d143b3fd9e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"756fd088608c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"77cba4792ea4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"784b328cd313","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"7855c9c4b20f","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7948258282ab","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7a5567c18cc8","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"7ad762584a62","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7c23d00295a9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"7c3ac71e13d4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7c72d73b7ebc","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7ccaf815bcaf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7ef7e30b1775","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"7f8cdfc28923","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"801f28c37e1c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"8193ae491399","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"81ebb401743a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"82da1a265583","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"844df5bcf1a8","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"84fe84ca8342","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"8550d89847e5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"86a1e0db3bae","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"8774cd105ef0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"88bdf2fad3c2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"89d4169f9ba2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"8c2256c63cfb","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_school.py"]},{"id":"8c33fed7deb6","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"8cf660fdba43","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"8d002011ccda","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"8d0558cf512a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"8e658dfecd0d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"8f05148950ac","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"901c83f4d723","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"903c8cecdf38","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"906b750bc072","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"908be4d400bc","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"90ca4ce6b9cb","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"91ef06794c0c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"920dd2d2b890","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9253dc32dadf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"928effbf5707","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"94284ea1e2f6","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"95de9a07ce2d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"963d7cb5420a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"97162b00774a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"97ef57c7ebc0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"98b0ccb6a901","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"99389d6ccf0b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9941f800cb87","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"99b01c4ba434","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"9abf0dc1b97f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9b06be98e476","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9b0eadf7f55e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9bed7ef2a96b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"9d0970e4c83b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9d15b5dbf436","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9d47f7752f82","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9d77d34955ba","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9dc0dbf42a79","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"9dcf20fff695","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"9df47ea1616e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"a00043b131de","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"a06548fd0563","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"a13992f4bdc9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"a1d23d557e21","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"a1d8fc875523","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"a49b4c738c93","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_grade_school.py"]},{"id":"a4ee18f189e0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"a55102fa0be8","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_grade_school.py"]},{"id":"a64684f39a9c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"a7514e4a668c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"a8c34e82caa0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"a953590a35f3","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"aad45dcb4449","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"ab8ff2be642e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ac883ed1ffc1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"ad96bc9ddd2b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ae25e3340584","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"af4f5550a85c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"af8c6e2ce452","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"afc8c138aaa0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"b03d704d62b0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"b1cdbd0cafd5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"b20fdde8e3a7","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"b318262d59b5","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"b409f425b1e8","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"b4cf6f4f5d92","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"b6c0bcf127c6","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"b7726ec9612c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"b8bee8e3b69e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"b96acb1f15b4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"bac28ec8f754","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"bada95ce11ea","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"bb5d79f00a54","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"bb69c1c4e22d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"bbef777403da","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"bbfd7029aac2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"bc1050bb7808","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"bc1a069b6235","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"bd9f1dc3964b","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"bf396c5cec2d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"bfd0a503f4d9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"c0838853b59f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"c1764b29bb33","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":5,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_school.py","/ws/test_examples.py"]},{"id":"c1b0c88ed6b4","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"c1d818082ec3","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"c277fcd9bccf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"c3abbb830dc2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"c3fd08f83a95","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"c4fc51857535","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"c5aeb08851a8","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"c5af20d6d09d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"c5e6d4f7f117","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"c5f4e79348d3","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"c637fc9a0718","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"c6688d7ec680","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"c85b72d678bf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"c8ff984c81c1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"c96e0055dfbf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"ca5380c6bf4d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"ca68f446b01c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"cafd88d4618d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"ccf4b27e827a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"cd3cad35aea5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"cdf12b9208b6","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"cf34eef6bca8","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"cf62c6c55b02","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"cf8d28b82b05","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"cfab63ca0cea","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"cfee58ad0884","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"d119231722db","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"d5b6a8518d0f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"d74dc741917d","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"d79b59158909","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"d7edab42ca6a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"d8306fa9d471","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"dc8226db1a13","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"dfbc128d0291","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":9,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py","/ws/test_grade_school.py","/ws/test_comprehensive.py"]},{"id":"dfd1c8d16f00","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"e0667a5187df","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"e0967ca5750c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"e1371599e7a7","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"e158b00802ff","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"e197d59a68df","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"e56d11ca9360","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"e69abb6daffe","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"e8095ed6815a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"e89f942cbac5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"e8c548235b5a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"e8cacb7ec74f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ea49e60363b0","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"eab2192a63a9","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ec61245365c3","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ec7d7221facf","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"eda5665d0d0a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"edfceea0f998","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"eebdbb66bb0a","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ef200f60b4dc","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"ef4cec5b11da","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"efcabe1ece8c","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"effd43e2d915","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each","files":["/ws/grade_school.py"]},{"id":"f193cd9e6ae1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"f2efb60de056","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"f3e0233512f2","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"f3eb3a743bf1","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"f7983ed03afe","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"f7f2fa31c4cb","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"f810352acd85","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"f98ea7be4f71","task":"ap_grade_school","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"f9b219197fee","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"fa86f109d37f","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"fd5de9bebf2e","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — enroll students (add + de-duplicate)\n\nYou are implementing `grade_school.py` incrementally. This segment covers\nenrolling students and listing them; a later segment adds sorted queries, so\ndon't worry about sort order or per-grade lookup yet.\n\nImplement the `School` class:\n\n- `add_student(name, grade)` — enroll a student in a grade.\n- `added()` — report, in call order, whether each `add_student` call was\n  accepted. A student cannot be added more than once to a grade, nor be enrolled\n  in more than one grade; a rejected (duplicate) add must be reported as not\n  accepted and ","files":["/ws/grade_school.py"]},{"id":"fe42109c5ad5","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nGiven students' names along with the grade that they are in, create a roster for the school.\n\nIn the end, you should be able to:\n\n- Add a student's name to the roster for a grade\n  - \"Add Jim to grade 2.\"\n  - \"OK.\"\n- Get a list of all students enrolled in a grade\n  - \"Which students are in grade 2?\"\n  - \"We've only got Jim just now.\"\n- Get a sorted list of all students in all grades.\n  Grades should sort as 1, 2, 3, etc., and students within a grade should be sorted alphabetically by name.\n  - \"Who all is enrolled in school right now?\"\n  - \"Let me think.\n    We have Anna, Barb,","files":["/ws/grade_school.py"]},{"id":"ff16bfed5cbe","task":"ap_grade_school","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — sorted roster + per-grade query\n\nContinue `grade_school.py` from the previous segment. Enrollment\n(`add_student` / `added`) already works — build on it, keep it working. Now\nimplement the sorted read side:\n\n- `grade(grade_number)` — the students in one grade, sorted alphabetically by\n  name (empty if that grade has none).\n- `roster()` — ALL students, sorted by grade (1, 2, 3, …) and then\n  alphabetically by name within each grade.\n\nEdit `grade_school.py` directly. Do not break the enrollment / de-duplication\nbehavior from the previous segment.","files":["/ws/grade_school.py"]},{"id":"1c7b771fbfbd","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"250acde6bfe7","task":"ap_grep","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"32d6b72b411c","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"33af20159fee","task":"ap_grep","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"5c4611becbf2","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"5e7e8ad2238d","task":"ap_grep","family":"aider","split":"dev","agent":null,"nEdits":13,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py","/ws/test.txt","/ws/test_grep.py","/ws/debug_grep.py","/ws/test_debug.py","/ws/debug_exact.py","/ws/debug_exact_detailed.py","/ws/sample.txt"]},{"id":"6b0cb2248aaf","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"90b11fabeea2","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"a7ef5db253e7","task":"ap_grep","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"aa3fb916954a","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"b605c928d75d","task":"ap_grep","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py"]},{"id":"e18cf508c515","task":"ap_grep","family":"aider","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py","/ws/test1.txt","/ws/test2.txt"]},{"id":"e6c0f757bbed","task":"ap_grep","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nSearch files for lines matching a search string and return all matching lines.\n\nThe Unix [`grep`][grep] command searches files for lines that match a regular expression.\nYour task is to implement a simplified `grep` command, which supports searching for fixed strings.\n\nThe `grep` command takes three arguments:\n\n1. The string to search for.\n2. Zero or more flags for customizing the command's behavior.\n3. One or more files to search in.\n\nIt then reads the contents of the specified files (in the order specified), finds the lines that contain the search string, and finally returns ","files":["/ws/grep.py","/ws/test1.txt","/ws/test2.txt"]},{"id":"081e63584c2f","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"14cc37723e8b","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":5,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py","/ws/test_hangman.py"]},{"id":"1e4983c49f36","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"26e5d6955064","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"2aff113c4b71","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"2eedb60f3b6a","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"34c5da3558ea","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"3d7ba9c6448d","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"4b7462d2ee49","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"4d4dd4c5a8a4","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"4deec336e905","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"527d01e968c2","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"52a57903a655","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"533db152f55c","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"53b919fe3256","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"77d079f3d91b","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"82de80052505","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"8b5dc1400676","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"937f18920c98","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"96eca230bf81","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":7,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py","/ws/test_hangman.py"]},{"id":"9744f4eb7517","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"9b23859265fe","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py","/ws/test_manual.py"]},{"id":"d60322856a8c","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"d6a95163afb0","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"e5102d412909","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"e77ddae74872","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"eb45d67b6bae","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"ed8ee6f9970d","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"f3ace53faf07","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"f621dcb2b704","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"f7238c0e5ec1","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":17,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py","/ws/test_hangman.py"]},{"id":"fad3cacbf8a5","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py","/ws/test_hangman.py"]},{"id":"fde56504146a","task":"ap_hangman","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py"]},{"id":"ff90d1812b60","task":"ap_hangman","family":"aider","split":"dev","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nImplement the logic of the hangman game using functional reactive programming.\n\n[Hangman][hangman] is a simple word guessing game.\n\n[Functional Reactive Programming][frp] is a way to write interactive programs.\nIt differs from the usual perspective in that instead of saying \"when the button is pressed increment the counter\", you write \"the value of the counter is the sum of the number of times the button is pressed.\"\n\nImplement the basic logic behind hangman using functional reactive programming.\nYou'll need to install an FRP library for this, this will be described in the lang","files":["/ws/hangman.py","/ws/test_hangman.py"]},{"id":"198ac453fb9e","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":11,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py","/ws/test_list_ops.py"]},{"id":"233ccab95750","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py","/ws/test_list_ops.py"]},{"id":"288e7a56e5e3","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"35f3f38a9a92","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"422ca5455473","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"4fad6ff4d057","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"73d8a4f7eba2","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":11,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"74bf5baaeb08","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":8,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"83edb5ca7390","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"9c3b8e1e8929","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"a364bffe2527","task":"ap_list_ops","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"c4f6f7ab4863","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"cd8fd3792933","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"f3048a07f1dd","task":"ap_list_ops","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nImplement basic list operations.\n\nIn functional languages list operations like `length`, `map`, and `reduce` are very common.\nImplement a series of basic list operations, without using existing functions.\n\nThe precise number and names of the operations to be implemented will be track dependent to avoid conflicts with existing names, but the general operations you will implement include:\n\n- `append` (_given two lists, add all items in the second list to the end of the first list_);\n- `concatenate` (_given a series of lists, combine all items in all lists into one flattened list_","files":["/ws/list_ops.py"]},{"id":"01b710b1574d","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/test_paasio.py"]},{"id":"06d0e6cbdf56","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/test_implementation.py"]},{"id":"0913194469eb","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/test_paasio.py","/ws/paasio.py","/ws/test_metered_socket_simple.py"]},{"id":"11bf533b5c12","task":"ap_paasio","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"1be221047716","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/test_paasio.py"]},{"id":"1f9f70bf9278","task":"ap_paasio","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"204fbaf1af7f","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"245b0dc7f123","task":"ap_paasio","family":"aider","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"47df70987326","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/paasio_test.py"]},{"id":"571876042c0a","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"59d61fe58976","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"7b6e84ed679f","task":"ap_paasio","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"7d5e759f72f2","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"7e8b9e00d6d9","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/test_paasio.py"]},{"id":"936f2dc65e59","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"a01bc8f2f627","task":"ap_paasio","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"a9a43ad810cd","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"b931941d2b3a","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"bbd2792904c7","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":14,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/test_basic.py","/ws/debug_test.py","/ws/debug_file.py"]},{"id":"d4d8c232a903","task":"ap_paasio","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py"]},{"id":"ffe57929860b","task":"ap_paasio","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nReport network IO statistics.\n\nYou are writing a [PaaS][paas], and you need a way to bill customers based on network and filesystem usage.\n\nCreate a wrapper for network connections and files that can report IO statistics.\nThe wrapper must report:\n\n- The total number of bytes read/written.\n- The total number of read/write operations.\n\n[paas]: https://en.wikipedia.org/wiki/Platform_as_a_service\n\nImplement the solution in paasio.py to pass the tests. Edit those file(s) directly.","files":["/ws/paasio.py","/ws/test_paasio.py"]},{"id":"0af505f6d738","task":"ap_phone_number","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"0b680a1301fd","task":"ap_phone_number","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"26bd1d1699f2","task":"ap_phone_number","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"55091f94b6dc","task":"ap_phone_number","family":"aider","split":"dev","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py","/ws/test_phone.py"]},{"id":"6832be5e66ef","task":"ap_phone_number","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"7e11282adc1c","task":"ap_phone_number","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"8035ba66df80","task":"ap_phone_number","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py","/ws/test_phone_number.py"]},{"id":"8051dd7df105","task":"ap_phone_number","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"9390d8c24e4c","task":"ap_phone_number","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nClean up user-entered phone numbers so that they can be sent SMS messages.\n\nThe **North American Numbering Plan (NANP)** is a telephone numbering system used by many countries in North America like the United States, Canada or Bermuda.\nAll NANP-countries share the same international country code: `1`.\n\nNANP numbers are ten-digit numbers consisting of a three-digit Numbering Plan Area code, commonly known as _area code_, followed by a seven-digit local number.\nThe first three digits of the local number represent the _exchange code_, followed by the unique four-digit number which","files":["/ws/phone_number.py"]},{"id":"0089c5084256","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py","/ws/test_pig_latin.py"]},{"id":"0aa9ecc4cd55","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"1ef61fbb01cc","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"2769d6d69a4a","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"2ff62c5dd1cf","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"32e5a3f71f00","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py","/ws/test_pig_latin.py","/ws/debug.py","/ws/additional_tests.py"]},{"id":"477bc7b3e3ab","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py","/ws/test_pig_latin.py"]},{"id":"482783c2f152","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"48aa1ff05691","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"542731f2a669","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"7f0ceb6c72b8","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"819402d0378a","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":10,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py","/ws/test_translator.py","/ws/debug_square.py","/ws/debug_square2.py"]},{"id":"8d453c5c5715","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"98695214b4fe","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"98e9f3f3688f","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":18,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py","/ws/test_pig_latin.py","/ws/debug.py","/ws/debug_algorithm.py","/ws/debug_multiple.py","/ws/debug_cherry.py","/ws/debug_xray.py","/ws/debug_simple.py","/ws/debug_full.py"]},{"id":"ae7c5829ff72","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"b1d7ad0298a8","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"b31c41272547","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"b4a28ea61c9e","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"c4e73b4e9e21","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"d17534001fc8","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"dedfb7f6c476","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"e7cff5fe713c","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":13,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py","/ws/test_implementation.py","/ws/debug.py","/ws/debug_detailed.py"]},{"id":"f15d2d06209d","task":"ap_pig_latin","family":"aider","split":"dev","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"f8c7d8daa1a9","task":"ap_pig_latin","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nYour task is to translate text from English to Pig Latin.\nThe translation is defined using four rules, which look at the pattern of vowels and consonants at the beginning of a word.\nThese rules look at each word's use of vowels and consonants:\n\n- vowels: the letters `a`, `e`, `i`, `o`, and `u`\n- consonants: the other 21 letters of the English alphabet\n\n## Rule 1\n\nIf a word begins with a vowel, or starts with `\"xr\"` or `\"yt\"`, add an `\"ay\"` sound to the end of the word.\n\nFor example:\n\n- `\"apple\"` -> `\"appleay\"` (starts with vowel)\n- `\"xray\"` -> `\"xrayay\"` (starts with `\"xr\"`)\n- ","files":["/ws/pig_latin.py"]},{"id":"19fabe46e837","task":"ap_poker","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"2761772a4adb","task":"ap_poker","family":"aider","split":"dev","agent":null,"nEdits":2,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"3a36a15c36be","task":"ap_poker","family":"aider","split":"dev","agent":null,"nEdits":16,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py","/ws/test_poker.py","/ws/debug_poker.py","/ws/debug_straight.py","/ws/debug_scoring.py","/ws/debug_test5.py","/ws/debug_flush.py","/ws/debug_formula.py"]},{"id":"3afae732d75c","task":"ap_poker","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py","/ws/test_poker.py"]},{"id":"5147cd59dfcb","task":"ap_poker","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"912ac0566aa5","task":"ap_poker","family":"aider","split":"dev","agent":null,"nEdits":3,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"d077e88aa491","task":"ap_poker","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"f0c580669da6","task":"ap_poker","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"f212e5d7d64b","task":"ap_poker","family":"aider","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"fbad28eea51b","task":"ap_poker","family":"aider","split":"dev","agent":null,"nEdits":4,"promptPreview":"# Instructions\n\nPick the best hand(s) from a list of poker hands.\n\nSee [Wikipedia][poker-hands] for an overview of poker hands.\n\n[poker-hands]: https://en.wikipedia.org/wiki/List_of_poker_hands\n\nImplement the solution in poker.py to pass the tests. Edit those file(s) directly.","files":["/ws/poker.py"]},{"id":"00ae8c2ce254","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"0105c6b85201","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"02b04676f2b5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"04dbae7891dc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0537a866817d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"053d3294853d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"057c26a5155d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"0629fd7a06a3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"06cc375141c0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"08d4eabe5138","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0ada69496608","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0b13524bb535","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"0b43affab15f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"0c4dc7f76f48","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0ddc53deba7c","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0e4e74ec08df","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0f341aad5de8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"0fa6a403a323","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"12f1fd0e4b2b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"1309dbd2a568","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"133dbf3184ed","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"1545c423714f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"16e2c6ba0e65","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"1705ed92e488","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"1736ec1b3872","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"178608fe6cc4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"18d80a244d52","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"19c6042bacfb","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"1d4715fdb179","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"1daf051ea3d6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"1df6c98b9849","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"1e0dd3de024a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"1e6df83fb6e2","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"202940c027cc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"206e8ec3dc54","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"2145368a6f89","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"22af79e8d44d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"22f272aa2ee6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"24a528c40d92","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"280477a1566a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"282a0f3485c0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"28d76691d34a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"2957c06ae836","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"2b0749d0eac7","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"2b256dcbe88d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"2c3c0b2b2c53","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"2ccda9fac0b9","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"2eaa075dd3c0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"2ef64224713b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"2fa51c89e663","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"2fc840b48c11","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"3006d2f1b9ff","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"33812aa53fbb","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"33d79348c16d","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_implementation.py"]},{"id":"3628eaaae43a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"370b27abceae","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"3835bb682abf","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"38a72cf480d6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"39452fa1e144","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"39d8544a3e96","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"3b00e0ed7977","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"3b6eba4e5eb2","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"3c4af64a2e64","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"3cf002b4ed5f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"3d9e35e8e6b5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"3f6ef1e34776","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"3fe143156a9f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"402aeec4952c","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"42492b545ddd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/tmp/opencode/test_pov.py"]},{"id":"43e75de4c2e4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"445e1e1b69cf","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"4558415207a1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"46e23f45c153","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"47c920b37aa6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"47d6484c4204","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"4831ae758dfc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"49754ecf1597","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"4a3552c251d4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"4a67b501f243","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"4bc6159d04fd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"4c078fa2cad0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"4d2a2adead81","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"4e78f877472d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"4f4843763b70","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"501c834da0e3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"501fc4ec9417","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5090f3fe4171","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5207cb53a92d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"52840aa06ffd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"52aa585645f5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"534420d66201","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5381323b83b3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"548d7d51c0ec","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"54e1366e272a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"559d5ef0913a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"55dac7ce8ab4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"564f4257ea7b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"56833c49b447","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"580d20a27d5e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"591b97bbf7f1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5963185f41ad","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"59f5aa706ceb","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"5bae11512242","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5cbc389f66fd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"5d82dbe1d4b5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5e771ce3001f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5e7ca964aaa6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5e85f58b443f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"5f9573572343","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"602fd9e1ac0d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"618c2783fa9c","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"62fd08dbd141","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"63006502bc17","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"6312ba394390","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"6328ca520ae6","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"63e26ca7034a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"644f90eba88e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"64e2938e71b4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"65cf70c930f3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"66c6919dba02","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"66fdc0739333","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"6893fd722b23","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"69289e416511","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"6980df5a13b8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"69c1b052c9b9","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"69d9f0bc0f20","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"6a3d45ba5432","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":12,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_pov.py","/ws/test_comprehensive.py"]},{"id":"6a59be904ea6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"6b7ad23d693e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"6c9203bfe487","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"6d0944d36ae5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"6f04616b2417","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"711e3cb80f04","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"731a6e89a7e0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"733719f89fe3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"739cb8926759","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"74067ace0494","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"745e48976e6c","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"75bd1fbdb85d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"76202b0f73b6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"778df0febbec","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"77faff163d56","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"785c6815f69e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"78d13cea24c0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"790aaf851773","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"793398c60e05","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"7be915e7d12a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"7c41d2d0a9a5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"7d37f948d67e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":6,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"7d62930c25dc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"7df0d8a9bd00","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"7f02f57934e1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"80684a4e83f0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"81abb03aa840","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":7,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"82d2b6fc5a96","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8351d624323c","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"838854604154","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"839520f6c9ed","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"84c896b46687","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":5,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_tree.py"]},{"id":"851cd9b697af","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8636a07dcb8f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8689c9551307","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"885cc8181a67","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"88e4a100e12b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8928c0c722be","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8a02322fb500","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8a2751567269","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8ace72a536a9","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8c3e28234da6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"8c4b0a355f78","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"8e531811d64d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8e59835f9767","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8ebd9204daf7","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"8ed71f731b89","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"8efe5bc3785f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"8f24d78d8eea","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"9007d88495db","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":9,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_pov.py"]},{"id":"90706b953afc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"90c84027aea4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"90cfd711dae0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"90d562ee8621","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"92de1a7d92bd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"944f2bd03afd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"94bf20972412","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"957fb712142f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"9593e4b0c9f6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"969e4adda16a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"97f96ec4105a","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":11,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_implementation.py"]},{"id":"983f2a1c607b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"98414789e3d8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"9a7d7927821d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"9bee1b27ecf7","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"9cdf0a32aa67","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"9d17135d0511","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"9d59e7394719","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"9d9942ce8878","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"9e21b62780f8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a0f15bf8acd1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a1163563521e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"a17ce4ed39c2","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a2463815a805","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"a297e1777540","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"a2e6cf5dea34","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"a2e760b0c84d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"a316c565ca94","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"a3842606bb1e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"a3f928daee38","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a45d87c62845","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"a5b7fd26b88a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a6b0a9637362","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"a705d0ca3768","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"a770210fcb3f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"a805e2550711","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"a8134d11bc7f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a89962e6b049","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a927217afcda","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a9b5b07382fc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"a9f286e1a25d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"aa126b4d4ba4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"aad07b24b366","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"aba65fcebf58","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"ac4fa9f5ff65","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"acb0f0a2f0cb","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"ae1dae2750d3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"ae234772cacd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"b0e767c7458d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"b3756742beff","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"b39a96da6775","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"b3a889f494cb","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"b4bb15f32421","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"b4ea589528f0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"b5431818bef2","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"b57580889d0a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"b64df33220ef","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"b6c904b42d35","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":7,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test.py","/ws/comprehensive_test.py"]},{"id":"b8793d5ce3d7","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"ba8f6bb80170","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"bbf271139c86","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"bd4c992575a9","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"bdda9c13321d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"bfef152537c9","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"c015870d9e07","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"c0b39eefa08e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"c1621af53317","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":12,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_pov.py","/ws/test_comprehensive.py"]},{"id":"c2b1d041caf3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"c2c745a05eed","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"c3845023356d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"c53435810132","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"c53dbf2d30b3","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"c566bbccff75","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"c5d490313b2e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"c647ba3a3526","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"c66c442160f1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"c6a0fb06a482","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"c72407bc9675","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"c8460045d168","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"ca50d2edc559","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"cbf2ff8f59f1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"cc70ce718993","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"cc7d615d1b34","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"cce1e2dd8d9b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"cd92f942058c","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"ce1524837e19","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"ce7b09be9b54","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d0201efd1ca4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"d0f9b575af82","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"d120f5d6ab39","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d1664ca35345","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d36d1b01f35b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d473a0f9b5fa","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d4ea3630e303","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d5fb36735612","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d681027acab8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":5,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d6acf5ff4010","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d790852fd88a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d7f3f89a6992","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d820aab5165d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d842c6bac501","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d85f6cf339a4","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"d8610b33f366","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"d8b7dd817f31","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"d92675833af6","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":6,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_simple.py","/ws/debug_pov.py"]},{"id":"d92d6968d7da","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"dacd8d0f510d","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"dad9abda57ed","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"db29d77c9bc1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"ded1665fc4dd","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"e087cd12f241","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"e0ea31cfd9f0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"Complete ALL of the following steps, in order, in this one session. Ignore any \"stop here\" or \"next segment\" notes inside a step — implement every step fully before you finish.\n\n===== Step 1 =====\n# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstruc","files":["/ws/pov.py"]},{"id":"e323a87c94bf","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"e3ebbf73f116","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"e4f4711f4361","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"e4fc56c421dc","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"e8f8869b4875","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":15,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py","/ws/test_pov.py","/ws/comprehensive_test.py"]},{"id":"e90147e09e38","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"e9071cc05c47","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"e941ac189d13","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"ef21d1411de8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f0660e2b5e23","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f09880c1293b","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"f1524f4cd4c5","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"f27b1a6e6d8e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"f2cf99def03e","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f2e0d0aff218","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f2fcd835cfc8","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":3,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f5d20c58a339","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"f7104ab0473a","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":6,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f7b2ef17b43c","task":"ap_pov","family":"aider","split":"test","agent":null,"nEdits":1,"promptPreview":"# Instructions\n\nReparent a tree on a selected node.\n\nA [tree][wiki-tree] is a special type of [graph][wiki-graph] where all nodes are connected but there are no cycles.\nThat means, there is exactly one path to get from one node to another for any pair of nodes.\n\nThis exercise is all about re-orientating a tree to see things from a different point of view.\nFor example family trees are usually presented from the ancestor's perspective:\n\n```text\n    +------0------+\n    |      |      |\n  +-1-+  +-2-+  +-3-+\n  |   |  |   |  |   |\n  4   5  6   7  8   9\n```\n\nBut there is no inherent direction in a tr","files":["/ws/pov.py"]},{"id":"f86c4fe0aca1","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"f8968373a242","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":1,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"f9eecbb595a7","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"fb67b038722f","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"fbf09fab6eb0","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"fcd0209d68d6","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"fcf8dce0a432","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":2,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"feb730b56788","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 1 of 2 — reorient the tree (`Tree.from_pov`)\n\nYou are implementing `pov.py` incrementally. This segment covers ONLY the\ntree-reorientation method. A later segment adds path-finding, so do not worry\nabout `path_to` yet — leave it as-is.\n\nA tree is a connected acyclic graph: there is exactly one path between any two\nnodes. `pov.py` already defines a `Tree(label, children=[])` class with\nstructural equality and ordering. Implement:\n\n    Tree.from_pov(from_node)\n\nIt returns the SAME tree re-rooted at `from_node`: pull `from_node` up to become\nthe root and drag every existing parent/child","files":["/ws/pov.py"]},{"id":"fee78701b341","task":"ap_pov","family":"aider","split":"test","agent":"a:opencode","nEdits":4,"promptPreview":"# Segment 2 of 2 — find the path between two nodes (`Tree.path_to`)\n\nContinue `pov.py` from the previous segment. `Tree.from_pov(from_node)` is\nalready implemented and working — build on it; do not break it. Implement:\n\n    Tree.path_to(from_node, to_node)\n\nIt returns the list of node labels on the unique path from `from_node` to\n`to_node`, inclusive of both endpoints. Reorienting the tree so `from_node` is\nthe root (you already have `from_pov`) turns this into a straight walk down to\n`to_node`.\n\nIf either `from_node` or `to_node` is not present in the tree, raise\n`ValueError` with a meaningfu","files":["/ws/pov.py"]},{"id":"02e9e0bc70e2","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"13b303febcc6","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"13ca8fd5d4f3","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"152cd4881fb7","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"18ac9d7f5c61","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"211d0cd32dda","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"2e675dc92ed1","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"36b797a30ad5","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"3b5dfd3949a7","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"4915d06d1ce3","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"53a7105ab099","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"5b14236119c4","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"7636d7ec79ad","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"7a11c64bdeac","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":2,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["./toolz/itertoolz.py","/ws/test_drop.py"]},{"id":"7afcf266a522","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"a096a83f2e89","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":2,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py","/ws/test_take.py"]},{"id":"a3918212dd46","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"b1a2981097d8","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"b23766bb090a","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":2,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py","/ws/test_sliding_window.py"]},{"id":"c242dcc177fd","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"ccb84207402c","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"d2d3c3107138","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"e9b27c27d1ad","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"f62530123879","task":"drop_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"f9e22b6ffc6a","task":"drop_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.drop(n, seq)` should skip the first n elements, but it skips n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"3f919d54606f","task":"sliding_window_drops_first","family":"toolz","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"5a5fe9d651c1","task":"sliding_window_drops_first","family":"toolz","split":"dev","agent":"a:opencode","nEdits":3,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"78e0764b7964","task":"sliding_window_drops_first","family":"toolz","split":"dev","agent":"a:opencode","nEdits":4,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"bedc1246bbe5","task":"sliding_window_drops_first","family":"toolz","split":"dev","agent":"a:opencode","nEdits":2,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"f36ab5eef7e4","task":"sliding_window_drops_first","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"fd3469316a6f","task":"sliding_window_drops_first","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.sliding_window(n, seq)` produces windows that are shifted/incorrect — the overlap is wrong.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"152807585951","task":"t01","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `sum_all(xs)` in `solution.py`: return the sum of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"9125e5cbc5ef","task":"t01","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `sum_all(xs)` in `solution.py`: return the sum of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"9e3ac482fcf8","task":"t01","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `sum_all(xs)` in `solution.py`: return the sum of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"ab48c504a25e","task":"t01","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `sum_all(xs)` in `solution.py`: return the sum of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"fc375be7049a","task":"t01","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `sum_all(xs)` in `solution.py`: return the sum of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"113424cc9c84","task":"t02","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `product(xs)` in `solution.py`: return the product of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"702cb1a24e87","task":"t02","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `product(xs)` in `solution.py`: return the product of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"a7de7ad95d92","task":"t02","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `product(xs)` in `solution.py`: return the product of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"e955c52a7a49","task":"t02","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `product(xs)` in `solution.py`: return the product of the numbers in the list `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"0a6bc3278389","task":"t03","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_evens(xs)` in `solution.py`: return how many numbers in `xs` are even.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"317460445c07","task":"t03","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_evens(xs)` in `solution.py`: return how many numbers in `xs` are even.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"6dcf7933baaa","task":"t03","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_evens(xs)` in `solution.py`: return how many numbers in `xs` are even.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"cc208918c5a8","task":"t03","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_evens(xs)` in `solution.py`: return how many numbers in `xs` are even.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"03a9c4680781","task":"t04","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `range_span(xs)` in `solution.py`: return the difference between the largest and smallest number in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"1be6d273dea0","task":"t04","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `range_span(xs)` in `solution.py`: return the difference between the largest and smallest number in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"4799cbc2847f","task":"t04","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `range_span(xs)` in `solution.py`: return the difference between the largest and smallest number in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"d471444a1297","task":"t04","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `range_span(xs)` in `solution.py`: return the difference between the largest and smallest number in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"330b06eff9b1","task":"t05","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_positives(xs)` in `solution.py`: return how many numbers in `xs` are strictly greater than zero.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"761da0260f33","task":"t05","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_positives(xs)` in `solution.py`: return how many numbers in `xs` are strictly greater than zero.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"9cd825e97557","task":"t05","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_positives(xs)` in `solution.py`: return how many numbers in `xs` are strictly greater than zero.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"adbb8eb99ba5","task":"t05","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_positives(xs)` in `solution.py`: return how many numbers in `xs` are strictly greater than zero.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"1f85e507bd92","task":"t06","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `second_largest(xs)` in `solution.py`: return the second-largest DISTINCT value in `xs` (assume xs has ≥2 distinct values when non-empty).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"626f38044004","task":"t06","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `second_largest(xs)` in `solution.py`: return the second-largest DISTINCT value in `xs` (assume xs has ≥2 distinct values when non-empty).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"62c46b031da5","task":"t06","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `second_largest(xs)` in `solution.py`: return the second-largest DISTINCT value in `xs` (assume xs has ≥2 distinct values when non-empty).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"c47d59363893","task":"t06","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `second_largest(xs)` in `solution.py`: return the second-largest DISTINCT value in `xs` (assume xs has ≥2 distinct values when non-empty).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"16bbf2ddae00","task":"t07","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `abs_max(xs)` in `solution.py`: return the value in `xs` with the largest absolute value (return the value itself, keeping its sign).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"6fb05cb496c1","task":"t07","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `abs_max(xs)` in `solution.py`: return the value in `xs` with the largest absolute value (return the value itself, keeping its sign).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"781e6610ce60","task":"t07","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `abs_max(xs)` in `solution.py`: return the value in `xs` with the largest absolute value (return the value itself, keeping its sign).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"c2c1d96b5d7c","task":"t07","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `abs_max(xs)` in `solution.py`: return the value in `xs` with the largest absolute value (return the value itself, keeping its sign).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"0e24d5e68b0f","task":"t08","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `alternating_sum(xs)` in `solution.py`: return xs[0] - xs[1] + xs[2] - ... (alternating signs from the left).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"1f238058ff2c","task":"t08","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `alternating_sum(xs)` in `solution.py`: return xs[0] - xs[1] + xs[2] - ... (alternating signs from the left).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"cbb9fe97c521","task":"t08","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `alternating_sum(xs)` in `solution.py`: return xs[0] - xs[1] + xs[2] - ... (alternating signs from the left).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"dba9a0f6076b","task":"t08","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `alternating_sum(xs)` in `solution.py`: return xs[0] - xs[1] + xs[2] - ... (alternating signs from the left).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"6dd259f3d714","task":"t09","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_runs(xs)` in `solution.py`: return the number of maximal runs of equal adjacent values in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"bd83d9240d73","task":"t09","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_runs(xs)` in `solution.py`: return the number of maximal runs of equal adjacent values in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"bfbf20c0f83a","task":"t09","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_runs(xs)` in `solution.py`: return the number of maximal runs of equal adjacent values in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"dcaebddbfb96","task":"t09","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `count_runs(xs)` in `solution.py`: return the number of maximal runs of equal adjacent values in `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"157775676fce","task":"t10","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `digit_sum_max(xs)` in `solution.py`: return the largest digit-sum among the non-negative integers in `xs` (e.g. 91 → 10).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"61c9aabb7d6d","task":"t10","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `digit_sum_max(xs)` in `solution.py`: return the largest digit-sum among the non-negative integers in `xs` (e.g. 91 → 10).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"6c2fe3f0852c","task":"t10","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `digit_sum_max(xs)` in `solution.py`: return the largest digit-sum among the non-negative integers in `xs` (e.g. 91 → 10).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"a37dd3223e3f","task":"t10","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `digit_sum_max(xs)` in `solution.py`: return the largest digit-sum among the non-negative integers in `xs` (e.g. 91 → 10).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"3c2f275a59dd","task":"t11","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `nth_smallest(xs)` in `solution.py`: return the 2nd-smallest value in `xs` (assume xs has ≥2 values when non-empty; duplicates count).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"47b54cd7090f","task":"t11","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `nth_smallest(xs)` in `solution.py`: return the 2nd-smallest value in `xs` (assume xs has ≥2 values when non-empty; duplicates count).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"49845df86a9c","task":"t11","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `nth_smallest(xs)` in `solution.py`: return the 2nd-smallest value in `xs` (assume xs has ≥2 values when non-empty; duplicates count).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"7843ae991b78","task":"t11","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `nth_smallest(xs)` in `solution.py`: return the 2nd-smallest value in `xs` (assume xs has ≥2 values when non-empty; duplicates count).\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"89ec970090e4","task":"t12","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `balanced_diff(xs)` in `solution.py`: return the absolute difference between the sum of even-indexed and odd-indexed elements of `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"ad169febf5fa","task":"t12","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `balanced_diff(xs)` in `solution.py`: return the absolute difference between the sum of even-indexed and odd-indexed elements of `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"b7a1fc51d91d","task":"t12","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `balanced_diff(xs)` in `solution.py`: return the absolute difference between the sum of even-indexed and odd-indexed elements of `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"fc31208d3981","task":"t12","family":"sensitivity","split":"dev","agent":null,"nEdits":1,"promptPreview":"Implement `balanced_diff(xs)` in `solution.py`: return the absolute difference between the sum of even-indexed and odd-indexed elements of `xs`.\n\n`xs` is a list of integers. Edit ONLY `solution.py`. Keep the function name and\nsignature exactly as given.","files":["/ws/solution.py"]},{"id":"001b64506a6c","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"19e85c7f3ed1","task":"tail_slice","family":"toolz","split":"dev","agent":null,"nEdits":3,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/test_tail_bug.py","/ws/toolz/itertoolz.py","/ws/test_tail_comprehensive.py"]},{"id":"1f54609165d0","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"367343b7f549","task":"tail_slice","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"3d235f1485af","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"40a3be3bf6b0","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"58be6626a794","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"6c8e1981f03d","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"6f17622b172f","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"701fda7909c1","task":"tail_slice","family":"toolz","split":"dev","agent":null,"nEdits":3,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py","/ws/toolz/test_tail.py","/ws/test_fix.py"]},{"id":"783a89a11660","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"7cc21d2bc5a4","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"892d726863db","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"9139b502bddc","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"c1ac8245e5ed","task":"tail_slice","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"fc53529b98af","task":"tail_slice","family":"toolz","split":"dev","agent":null,"nEdits":2,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.tail(n, seq)` returns the wrong number of trailing elements for indexable sequences (one too few).\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py","/ws/test_tail_fix.py"]},{"id":"2f87f0bb3587","task":"take_nth_offset","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"4063045d72dd","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"48a76166341b","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"4ca135c2a7fb","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"5cdf7e0302c2","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"6e1b0d84c682","task":"take_nth_offset","family":"toolz","split":"dev","agent":null,"nEdits":2,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py","/ws/test_take_nth.py"]},{"id":"75b0b396e811","task":"take_nth_offset","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"76cb4062d385","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"76d8a1a70060","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"798e072c32d3","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"79b5b125d4b2","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"7baf2254fab8","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"aece2083e936","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"b2ff088b7c71","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"be3d7406fee4","task":"take_nth_offset","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take_nth(n, seq)` should start at the first element (index 0), but it starts at the second.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"073eae2f2e4a","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"0dda4fade8ea","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"38304352185f","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"3b00d93a1451","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"3ec1f97b0097","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"48d9ff2c8834","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"5d48f450e284","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"659edb8b9841","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"67c547f7c3d3","task":"take_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"9faa81749c5e","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"a31b976a17f4","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"aa9b25907725","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"ab455abdd7f8","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"c2d3a50038e9","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"c72401272157","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"deafb8af0512","task":"take_off_by_one","family":"toolz","split":"dev","agent":"a:opencode","nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]},{"id":"f5f26c56e2b0","task":"take_off_by_one","family":"toolz","split":"dev","agent":null,"nEdits":1,"promptPreview":"There is a bug in the `toolz` library (a pure-Python utility package). Symptom:\n\n  `toolz.take(n, seq)` should yield the first n elements of seq, but it yields n+1.\n\nFind the faulty function in the `toolz/` source and fix it. Edit only the source\nunder `toolz/`; keep the public function name and signature unchanged.","files":["/ws/toolz/itertoolz.py"]}]