Towards Real-World Industrial-Scale Verification: LLM-Driven Theorem Proving on seL4
Jianyu Zhang, Fuyuan Zhang, Jiayi Lu, Jilin Hu, Xiaoyi Yin, Long Zhang, Feng Yang, and Yongwang Zhao

TL;DR
This paper introduces AutoReal, an LLM-based theorem proving approach tailored for industrial-scale verification, demonstrating significant success on seL4 and AFP projects with a lightweight, deployable model.
Contribution
The paper presents AutoReal, a novel LLM-driven theorem proving method with chain-of-thought training and context augmentation, enabling effective industrial-scale verification with a compact model.
Findings
AutoReal-Prover achieves 51.67% proof success on seL4.
AutoReal-Prover outperforms prior methods on seL4 (27.06%).
AutoReal-Prover attains 53.88% success on AFP projects.
Abstract
Formal methods (FM) are reliable but costly to apply, often requiring years of expert effort in industrial-scale projects such as seL4, especially for theorem proving. Recent advances in large language models (LLMs) have made automated theorem proving increasingly feasible. However, most prior work focuses on mathematics-oriented benchmarks such as miniF2F, with limited evaluation on real-world verification projects. The few studies that consider industrial-scale verification mostly rely on closed-source models with hundreds of billions of parameters, which cannot be locally deployed and incur substantial usage costs. In this paper, we propose AutoReal, an LLM-driven theorem proving method for real-world industrial-scale systems with support for lightweight local deployment. We evaluate AutoReal on the seL4-Isabelle verification project as a representative and challenging case study.…
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Taxonomy
TopicsLogic, programming, and type systems · Formal Methods in Verification · Machine Learning in Materials Science
