Learning Likely Invariants to Explain Why a Program Fails
October 27, 2016 Β· Declared Dead Β· π IEEE International Conference on Engineering of Complex Computer Systems
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Authors
Jun Sun, Long H. Pham, Lyly Tran Thi, Jingyi Wang, Xin Peng
arXiv ID
1610.08607
Category
cs.SE: Software Engineering
Citations
3
Venue
IEEE International Conference on Engineering of Complex Computer Systems
Last Checked
4 months ago
Abstract
Debugging is difficult. Recent studies show that automatic bug localization techniques have limited usefulness. One of the reasons is that programmers typically have to understand why the program fails before fixing it. In this work, we aim to help programmers understand a bug by automatically generating likely invariants which are violated in the failed tests. Given a program with an initial assertion and at least one test case failing the assertion, we first generate random test cases, identify potential bug locations through bug localization, and then generate program state mutation based on active learning techniques to identify a predicate "explaining" the cause of the bug. The predicate is a classifier for the passed test cases and failed test cases. Our main contribution is the application of invariant learning for bug explanation, as well as a novel approach to overcome the problem of lack of test cases in practice. We apply our method to real-world bugs and show the generated invariants are often correlated to the actual bug fixes.
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