信息网络安全 ›› 2026, Vol. 26 ›› Issue (9): 1369-1382.doi: 10.3969/j.issn.1671-1122.2026.09.004
收稿日期:2026-05-10
出版日期:2026-09-10
发布日期:2026-09-30
通讯作者:
宋铮
E-mail:songzheng@gass.cn
作者简介:宋铮(1986—),男,江苏,副研究员,硕士,CCF会员,主要研究方向为软件安全、网络安全|杨芮淇(2002—),女,湖南,硕士研究生,主要研究方向为二进制分析、系统安全|李化成(1995—),男,山东,助理研究员,博士,主要研究方向为内容安全、网络空间安全、人工智能与网络安全
基金资助:
Song Zheng1(
), Yang Ruiqi1,2, Li Huacheng1
Received:2026-05-10
Online:2026-09-10
Published:2026-09-30
Contact:
Song Zheng
E-mail:songzheng@gass.cn
摘要:
现代软件系统规模与复杂度激增,使传统静态分析面临严峻挑战。为此,文章系统地综述仓库级静态漏洞检测技术的演进脉络、核心挑战及前沿方法。首先,梳理从规则驱动的传统静态分析、数据驱动的机器学习与深度学习,到语义驱动的大语言模型(LLM)及智能体的技术代际演进,剖析中间表示在跨文件建模中的作用。然后,针对仓库级场景,归纳上下文规模超限、跨文件依赖断裂和误报控制困难等6类核心挑战,系统评估静态分析工具与LLM的深度集成、智能体协同检测等技术路线的能力边界。最后,在此基础上,深入剖析概率推理与形式化约束冲突而引发的可信性瓶颈,指出现有数据集在结构上的若干局限,提出面向工程效能的评估指标重构思路,并展望未来研究方向。
中图分类号:
宋铮, 杨芮淇, 李化成. 仓库级静态漏洞检测综述:从规则驱动到大语言模型与智能体[J]. 信息网络安全, 2026, 26(9): 1369-1382.
Song Zheng, Yang Ruiqi, Li Huacheng. Survey of repository-level static vulnerability detection: from rule-driven to LLM and agent[J]. Netinfo Security, 2026, 26(9): 1369-1382.
表2
4种技术路线的适用场景与存在问题
| 适配技术路线 | 代表方法 | 适用场景 | 存在问题 |
|---|---|---|---|
| 提示工程 | 零/少样本 提示、思维链、结构化模板 | 快速原型验证、 通用语义推理、低算力/低标注场景 | 高度依赖基座能力、结果不 稳定、缺乏形式化保证、易受提示词设计偏差影响、跨文件数据流推理能力有限 |
| 参数微调 | 全量微调、指令微调、LoRA等参数高效微调技术 | 领域知识注入、 检测精度优化、 特定通用缺陷枚举模式学习 | 依赖高质量标注、易过拟合或灾难性遗忘、跨语言泛化受限、训练部署成本较高 |
| 检索增强生成 | 向量检索及重排序、多跳 知识检索 | 动态安全知识更新、缓解记忆滞后、 依赖上下文增强 | 知识库维护成本高、检索噪声干扰推理、延迟影响流水线、易引发注意力稀释 |
| 智能体 | 多智能体协同、ReAct/规划-执行- 反思 | 仓库级跨文件分析、多步推理与工具 调度、自动化审计 | 规划复杂度高、Token与应用程序编程接口成本高昂、缺乏有效终止条件易致探索空间 爆炸、工具误用放大幻觉 |
表3
代表性漏洞检测数据集对比
| 数据集 | 年份 | 规模 (漏洞函数/总计函数) | 语言 | CWE种类 /种 | 粒度 | 主要特点 |
|---|---|---|---|---|---|---|
| Devign[ | 2019 | 27652/58965 | C | — | 函数级 | 4个C项目,人工标注 |
| BigVul[ | 2020 | 11823/264919 | C/C++ | 91 | 函数级 | 规模大,标签噪声高 |
| CWE-Bench-Java[ | 2024 | 120 CVE | Java | 4 | 多粒度 | 包含缺陷和已修复的源代码、文件和函数 信息 |
| PrimeVul[ | 2024 | 6968/235768 | C/C++ | 140 | 函数级 | 严格去重,时间切分 |
| CleanVul[ | 2025 | 8198 | Java/Python/JavaScript/C#/C/C++ | — | 函数级 | LLM辅助清洗,正确率高 |
| BenchVul[ | 2026 | 1050 | 多语言 | 21 | 函数级 | 独立OOD测试集;真实190+合成860;类别平衡 |
| Java CVE Benchmark[ | 2023 | 165程序/165CVE | Java | 8 | 仓库级 | 作者声称为最大的Java漏洞基准数据集 |
| ReposVul[ | 2024 | 6134 CVE | C/C++/Java/Python | 236 | 仓库级 | 作者声称为首个仓库级高质量数据集 |
| VulEval[ | 2026 | 4196 CVE | C/C++ | — | 仓库级 | 过程间+过程内联合评估 |
| CVE-Bench[ | 2025 | 509 CVE/120 repos | Python/Java/JavaScript/PHP | 16+ | 仓库级 | 可执行环境,智能体评估 |
表4
静态分析与LLM集成架构对比
| 集成模式 | 代表工作 | LLM角色 | SAST角色 | 解决 挑战 | 主要优势 |
|---|---|---|---|---|---|
| 规格推断与规则自演化模式 | QLPro[ | 多数投票确定规格推断,生成QL文件,迭代修复 | 提取污点规格,编译执行QL文件 | 挑战3、挑战6 | 缓解上下文偏差影响;显著提升QL文件语法正确性 |
| IRIS[ | 规格推断,上下文分类 | 数据流分析引擎,规则执行器,候选生成器 | 挑战3、挑战6 | 规则自演化、全仓库分析、精度提升、零样本扩展 | |
| CPGHunter[ | 规格生成器 | 精确分析 引擎 | 挑战3、挑战6 | 消除规格 依赖 | |
| 误报过滤与告警归因 裁决模式 | ZeroFalse[ | 语义裁决者 | 证据生成器 | 挑战4 | 高精度保留召回 |
| LLM4SA[ | 扮演人类专家对警告审查 裁决 | 自动化扫 描器 | 挑战4 | 高效、通用、可解释、可扩展;高覆盖率与 自动化 | |
| 语义导向切片与上下文压缩模式 | LLMxCPG[ | 查询生成器(切片)、漏洞分类(检测) | 代码建模、执行引擎、特征提取 | 挑战1、挑战2 | 可解释性强、低假阳性、跨文件分析、抗变换鲁棒性 |
| 标准化查询接口与事实按需检索 模式 | codebadger[ | 智能分析代理 | 知识库和执行引擎 | 挑战2、挑战5 | 语义导航及跨函数分析 |
| Deep VulHunter[ | 基于样例推理判断漏洞类别、触发路径、补丁原理 | 检索相似 代码 (代替SAST) | 挑战5 | 外部知识和多轮推理强化;通过示例-推理-验证减少 偏差 |
表5
不同仓库级检测技术对比
| 技术分类 | 代表工作 | 系统能力与适用场景 | 挑战覆盖 |
|---|---|---|---|
| 传统SAST | Joern[ | 确定性语义分析,跨模块依赖建模;适用于安全合规扫描与已知模式检测 | 挑战2、挑战6 |
| 机器学习/深度学习 | Devign[ | 自动特征学习与结构化表示建模;适用于函数级模式泛化 | 挑战3 |
| LLM 原生检测 | 检索增强生成 Vul-RAG[ | 外部知识动态注入:突破模型训练数据截断限制,通过历史漏洞模式增强根因推理能力;适用于依赖历史知识迁移的 检测任务 | 挑战3、挑战5 |
| 轻量化推理 VulnLLM-R[ | 推理能力内化:将Agent调度开销压缩至模型内部,通过蒸馏实现高效检测; 适用于低延迟、成本敏感场景 | 挑战1、挑战2 | |
| SAST与LLM 深度集成 | 规则自演化IRIS[ | 自动化规则生成:解决人工维护成本高与外部库规格缺失 问题; 适用于规则滞后、动态架构适配场景 | 挑战3、挑战6 |
| 误报裁决ZeroFalse[ | 语义级告警过滤:在SAST高精度扫描基础上,降低海量误报人工审计疲劳; 适用于工业级流水线后处理 | 挑战4、挑战5 | |
| 上下文压缩 LLMxCPG[ | 结构化事实注入:利用静态图分析裁剪冗余代码,为LLM 提供高信噪比输入;适用于超长上下文与跨文件依赖追踪 | 挑战1、挑战2、挑战5 | |
| 智能体自主审计 (系统级自主性) | 单智能体 RepoAudit[ | 自适应规划与探索:通过ReAct或规则导航动态决定 分析深度,无需预设全量流水线;适用于未知漏洞探索与 灵活场景 | 挑战1、挑战2、挑战5 |
| 多智能体协同 Argus[ | 角色分工与对抗验证:通过检测、验证、PoC生成等多角色协同,实现全流程自动化与误报交叉验证;适用于复杂供应链与高精度要求场景 | 挑战2、挑战3、挑战4、挑战5 |
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