MultiMend: Multilingual Program Repair with Context Augmentation and Multi-Hunk Patch Generation

• URL: http://arxiv.org/abs/2501.16044v1
• Date: Mon, 27 Jan 2025 13:37:43 GMT
• Title: MultiMend: Multilingual Program Repair with Context Augmentation and Multi-Hunk Patch Generation
• Authors: Reza Gharibi, Mohammad Hadi Sadreddini, Seyed Mostafa Fakhrahmad,
• Abstract summary: MultiMend is a learning-based APR approach designed to improve repair performance on multiple programming languages. It embeds source code lines and applies retrieval-augmented generation to augment the buggy context with relevant lines during patch generation. We evaluate MultiMend on four benchmarks with four programming languages and compare it with state-of-the-art methods.
• Score: 2.7036595757881323
• License:
• Abstract: Context: Bugs in code are inevitable and can lead to severe consequences, ranging from security vulnerabilities to operational failures. Debugging software remains challenging despite advances in testing and verification, often requiring extensive manual effort. Learning-based automated program repair (APR) has shown promise in reducing the time, effort, and cost of manually fixing bugs. However, existing techniques face several challenges, including language-dependent strategies, limited bug context utilization, and difficulties in handling bugs that span multiple locations in the code. Objective: This paper introduces MultiMend, a learning-based APR approach designed to improve repair performance on multiple programming languages with language-independent context augmentation and multi-hunk patch generation. Method: MultiMend fine-tunes a pre-trained encoder-decoder transformer model (CodeT5) to generate bug-fixing patches. It embeds source code lines and applies retrieval-augmented generation to augment the buggy context with relevant lines during patch generation. The approach systematically constructs patches for multi-hunk bugs to reduce the needed patch validations. We evaluate MultiMend on four benchmarks with four programming languages and compare it with state-of-the-art methods. Results: Experimental results show that MultiMend achieves competitive effectiveness and efficiency against compared tools. Across all benchmarks, MultiMend fixes 2,077 bugs, of which 1,455 are identical to the developer's patch, and 106 are for multi-hunk bugs. Both context augmentation and multi-hunk patch generation positively contribute to the results. Conclusion: MultiMend shows promising performance across benchmarks. The findings highlight its applicability to real-world software maintenance and its potential to reduce manual debugging efforts.

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