Prevailing coding agent benchmarks evaluate isolated patch synthesis (e.g. SWE-bench) or vulnerability detection, neglecting whether agents can construct reusable, production-grade static-analysis checkers from scratch. Developing static analyzers requires interpreting defect specifications, traversing multi-file AST semantics, writing engine-specific logic, and refining implementations through iterative compilation and diagnostic feedback. Researchers from East China Normal University, SJTU, and Peking University unveil CheckerBench (arXiv:2610.07557), an executable suite comprising 300 tasks derived from 297 CVEs across 167 repositories, 85 CWEs, and five programming languages. Powered by the CheckerLab harness, evaluation across 21 model-harness configurations reveals a mean Pass@1 rate of only 32.30% (peak 45.33%), demonstrating that end-to-end program analysis tool synthesis represents a profound new frontier for software engineering agents.
Key Takeaways
- ✓ECNU, SJTU, and Peking University launch CheckerBench, the first executable benchmark for coding agents synthesizing static analysis checkers
- ✓Features 300 tasks spanning 297 CVEs and 85 CWEs across C/C++, Go, Java, Python, and Rust with the CheckerLab framework
- ✓21 model-harness setups achieve a mean Pass@1 of only 32.30% (peak 45.33%), exposing gaps in compiler-in-the-loop tool synthesis
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Background and the Problem
Coding agent benchmarks like SWE-bench evaluate episodic patch generation across existing codebases. However, enterprise software security demands proactive defect prevention: synthesizing reusable static-analysis checkers (e.g., Clang-Tidy plugins, CodeQL queries, Semgrep rules) to guard against recurring vulnerability classes. Writing static analyzers requires deep syntactic and semantic comprehension, traversing abstract syntax trees (ASTs), handling cross-file control flows, and iterating against compiler diagnostics. The community has lacked an executable benchmark assessing this advanced capability.
Architecture and How It Works
Researchers from ECNU, SJTU, and Peking University unveil CheckerBench (arXiv:2610.07557), an end-to-end executable benchmark:
- 300 Real-World Tasks: Derived from 297 CVEs across 167 open-source repositories and 85 CWE vulnerability categories.
- Five Language Ecosystems: Spans C/C++, Go, Java, Python, and Rust, mitigating single-language bias.
- Complete Diagnostic Scaffolds: Pairs vulnerable and patched repository commits with pinned compilation containers and starter checker scaffolds.
- CheckerLab Evaluation Suite: Rebuilds submitted checkers in hermetic environments, quantifying diagnostic contrast between vulnerable and fixed code, patch localization precision, false-positive rates, and tool interaction efficiency.
Benchmarks and Measured Results
Evaluated across 21 model-harness configurations with three independent trials per configuration:
- 32.30% Mean Pass@1: Current frontier agents struggle with program-analysis synthesis, achieving an average Pass@1 rate of only 32.30%.
- 45.33% Peak Performance: The top-performing frontier model harness achieves only 45.33%, leaving more than half of the benchmark's vulnerability checkers unsolved.
- Persistent Bottlenecks: Error analysis identifies high false-positive rates and brittle compiler-feedback loop handling as the primary collapse modes for coding agents.
Getting Started for Developers
CheckerBench and its dataset (GitHub: ahang0712/CheckerBench-Dataset) highlight an architectural shift for DevSecOps teams. Rather than deploying LLMs to inspect every code diff token-by-token, organizations should train agents to synthesize deterministic static analysis rules. Checkers synthesized by agents can run inside native CI/CD pipelines, delivering millisecond-latency vulnerability scanning across millions of lines of enterprise code.
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