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新论文 · v1arXiv:2611.13401

SPARK: Semantic-preserving Prompt Mutation for Code Generation using Consensus-based Verification Framework

Alireza Daghigh, Chung-Yu Wang, Luca Filippelli, Hamed Taherkhani, Hadi Hemmati, Hung Viet Pham

原文摘要

Automated code generation with large language models (LLMs) has improved in recent years. With the lack of test cases in real-world usages, generated code is not automatically verifiable and often requires manual validation. Previous studies have leveraged consensus verification, where code solutions and corresponding test cases are generated and evaluated based on functional consistency. Building on this, SPARK incorporates semantic-preserving mutations to problem descriptions such as paraphrasing, grammatical adjustments, function renaming, and other alterations to enhance the robustness and correctness of LLM-generated code. For each mutated description, SPARK generates a set of code solutions and test cases. These candidate solutions are evaluated using consensus-based verification, where the solutions' quality is measured by how consistently they pass generated tests. We assess the effectiveness of SPARK on three benchmarks (LiveCodeBench, BigCodeBench, and DLBench) across three LLMs (o4-mini, DeepSeek-R1-Basic, and Gemini-2.5-Pro). Our evaluation demonstrates that SPARK outperforms state-of-the-art consensus-based verification approaches by up to 4.1%. Our generalization experiment highlights the practical potential of SPARK as an effective strategy for enhancing the reliability and correctness of LLM-based code generation systems in scenarios where traditional validation resources are scarce, while our qualitative analysis shows insight into how SPARK's mutation helps LLMs generate better code solutions.

cs.SE

新论文 · v1arXiv:2611.13395

A Taxonomy of Failing Bug Reproduction Tests on SWT-Bench

Luca Filippelli, Hamed Taherkhani, Hung Viet Pham, Hadi Hemmati

原文摘要

Automatic Program Repair (APR) tools require high-quality test generation models to validate candidate patches. Despite the advancements of automated bug reproduction testing tools, they continue to struggle with issues of higher complexity. These struggles may be caused by a framework's lack of problem-specific context. We address the unclassified nature of these framework failures by providing a taxonomy of bug reproduction tests. This study uses the AssertFlip and OpenHands frameworks, the two highest-scoring open-source tools on SWT-Bench Verified. The significance of model selection on the causes of failure is also explored by utilizing GPT-5-mini and GPT-4o-mini on both tools. The error traces of these frameworks are categorized to determine granular modes of failure. Through this process, mechanical and implementation failures were the most common failure classes. Overall, a tool's generation approach has a significant impact on precision and coverage, while the selection of the model alters the quality and quantity of generated tests. Specifically, more powerful models with higher reasoning capability tended to present fewer failures due to a lack of technical or problem-specific context. Our experiment also shows evidence that our taxonomy can be used as concrete guidance to augment the issue description to improve the generation quality.

cs.SE

新论文 · v1arXiv:2610.37797

Structured Security Explanations for Learning-Based Vulnerability Detection

Fares Trad, Yizhou Chen, Hung Viet Pham, Zeyu Sun, Gias Uddin

原文摘要

Software vulnerability detection remains difficult because existing approaches rely on predefined analysis rules, learn vulnerability patterns implicitly from code and labels, or use large language models (LLMs) to make the final security judgment. It remains unclear whether structured descriptions of security-relevant program behavior can improve supervised detection. We present VulnLens, an explanation-augmented framework for binary C/C++ vulnerability detection that separates program-behavior analysis from the final decision. A label-blind LLM-based Explainer examines each function from seven fixed perspectives: data flow, memory access, object lifetime, arithmetic and type behavior, control flow, shared state, and external-resource access. Without receiving vulnerability labels or CWE information, it generates structured explanations. A supervised Detector combines source code and explanations through sequential cross-attention. We evaluate VulnLens on a PrimeVul-derived dataset covering ten CWE categories and test transfer to SecVulEval without retraining. On the 526-function PrimeVul test set, VulnLens achieves 75.5% accuracy and 77.2% F1, exceeding DeepSeek V4 Pro by 4.2 percentage points in accuracy and Gemini 2.5 Pro by 2.2 points in F1. Matched explanations improve F1 by 7.3 points over a separately trained code-only detector. On SecVulEval, VulnLens achieves 66.4% accuracy and 65.8% F1, outperforming DeepSeek V4 Pro by 7.6 points in accuracy and 20.0 points in F1, and Gemini 2.5 Pro by 16.6 points in accuracy and 7.8 points in F1.

cs.CR · cs.SE