用语义代码搜索(T)修复程序

Yalin Ke, Kathryn T. Stolee, Claire Le Goues, Yuriy Brun
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引用次数: 165

摘要

自动程序修复可以潜在地降低调试成本并提高软件质量,但是最近的研究已经引起了人们对自动生成修复质量缺陷的关注。我们提出了一种新的修复方法,它使用大量现有的开源代码来找到潜在的修复方法。关键的挑战在于有效地找到语义上与有缺陷的代码相似(但不完全相同)的代码,然后将这些代码适当地集成到有缺陷的程序中。我们提出了SearchRepair,这是一种解决这些挑战的修复技术,通过(1)将人类编写的代码片段的大型数据库编码为输入-输出行为的SMT约束,(2)将给定缺陷定位为可能存在错误的程序片段,并为代码派生所需的输入-输出行为来替换这些片段。(3)使用最先进的约束求解器在数据库中搜索满足期望行为的片段,并用这些潜在的补丁替换可能存在错误的代码,以及(4)根据程序测试套件验证补丁修复了错误。我们发现SearchRepair修复了由新手编写的778个基准C缺陷中的150个(19%),其中20个没有被GenProg、TrpAutoRepair和AE修复。我们通过测量四种技术生成的补丁通过了多少个独立的、在维修期间不使用的测试来比较它们的质量,发现searchrepair -被修复程序平均通过了97.3%的测试,而GenProg-、TrpAutoRepair-和ae -被修复程序分别通过了68.7%、72.1%和64.2%的测试。我们得出的结论是,SearchRepair比GenProg、TrpAutoRepair和AE产生更高质量的修复,并且修复了这些工具无法修复的一些缺陷。
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Repairing Programs with Semantic Code Search (T)
Automated program repair can potentially reduce debugging costs and improve software quality but recent studies have drawn attention to shortcomings in the quality of automatically generated repairs. We propose a new kind of repair that uses the large body of existing open-source code to find potential fixes. The key challenges lie in efficiently finding code semantically similar (but not identical) to defective code and then appropriately integrating that code into a buggy program. We present SearchRepair, a repair technique that addresses these challenges by(1) encoding a large database of human-written code fragments as SMT constraints on input-output behavior, (2) localizing a given defect to likely buggy program fragments and deriving the desired input-output behavior for code to replace those fragments, (3) using state-of-the-art constraint solvers to search the database for fragments that satisfy that desired behavior and replacing the likely buggy code with these potential patches, and (4) validating that the patches repair the bug against program testsuites. We find that SearchRepair repairs 150 (19%) of 778 benchmark C defects written by novice students, 20 of which are not repaired by GenProg, TrpAutoRepair, and AE. We compare the quality of the patches generated by the four techniques by measuring how many independent, not-used-during-repairtests they pass, and find that SearchRepair-repaired programs pass 97.3% ofthe tests, on average, whereas GenProg-, TrpAutoRepair-, and AE-repaired programs pass 68.7%, 72.1%, and 64.2% of the tests, respectively. We concludethat SearchRepair produces higher-quality repairs than GenProg, TrpAutoRepair, and AE, and repairs some defects those tools cannot.
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