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This research introduces Flare, a framework that enhances LLM code generation by using lightweight diagnostic models to pinpoint line-level bugs rather than relying on coarse feedback like test failures. By iteratively searching over suspicious regions and validating candidates against execution outcomes, the method significantly improves bug-fixing accuracy across multiple benchmarks without requiring heavy computational overhead. The work demonstrates that fine-grained, uncertainty-aware guidance is a critical advancement for practical software engineering applications of large language models.
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FLARE: Fine-Grained Diagnostic Feedback for LLM Code Refinement

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2606.03852v2 Announce Type: replace-cross Abstract: Large language models often generate code with bugs. Existing methods rely on feedback signals such as test failures and self-critiques to iteratively refine the generated code. Such signals are either too coarse-grained or too high-level, which is not sufficient to inform the model where to fix the bug. In this work, we present Flare, an iterative framework with a lightweight diagnostic model that predicts line-level suspiciousness signals for bug localization and code refinement. Given the inherent uncertainty of diagnostic predictions, Flare searches over the top-k suspicious regions and selects the best candidate according to execution outcomes. Experiments on LiveCodeBench and BigCodeBench with five base LLMs show that, even without candidate search (k=1), Flare outperforms the strongest baseline with an absolute improvement from 1.72% to 7.42%. Furthermore, searching over 10 candidates yields an average improvement of 8.50% compared with no candidate search. When evaluated in isolation, our lightweight diagnostic model achieves the best performance compared with recent fault localization methods, demonstrating that it can provide reliable fine-grained guidance for code refinement.

Abstract:Large language models often generate code with bugs. Existing methods rely on feedback signals such as test failures and self-critiques to iteratively refine the generated code. Such signals are either too coarse-grained or too high-level, which is not sufficient to inform the model where to fix the bug. In this work, we present Flare, an iterative framework with a lightweight diagnostic model that predicts line-level suspiciousness signals for bug localization and code refinement. Given the inherent uncertainty of diagnostic predictions, Flare searches over the top-k suspicious regions and selects the best candidate according to execution outcomes. Experiments on LiveCodeBench and BigCodeBench with five base LLMs show that, even without candidate search (k=1), Flare outperforms the strongest baseline with an absolute improvement from 1.72% to 7.42%. Furthermore, searching over 10 candidates yields an average improvement of 8.50% compared with no candidate search. When evaluated in isolation, our lightweight diagnostic model achieves the best performance compared with recent fault localization methods, demonstrating that it can provide reliable fine-grained guidance for code refinement.

Software Engineering (cs.SE); Artificial Intelligence (cs.AI)

arXiv:2606.03852 [cs.SE]

(or arXiv:2606.03852v2 [cs.SE] for this version)

https://doi.org/10.48550/arXiv.2606.03852 Focus to learn more arXiv-issued DOI via DataCite

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