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理解基于混淆的端侧LLM保护的安全边界
论文针对 TEE 保护的端侧 LLM 中 TEE-Shielded LLM Partition(TSLP)方法多为启发式设计的问题,形式化了一组满足特定代数性质的线性计算混淆原语,证明代表性 TSLP 框架的矩阵级权重变换可表示为这些原语的组合,其规范形 O_prior 刻画了该原语族的结构边界。作者提出原语引导的 Collapse 攻击,指出 ArrowCloak(Security'25)、TSQP(S&P'25)、LoRO(NeurIPS'25)等方法存在共性漏洞,并引入两个新原语构成 O_ext 以扩展安全边界。
AI推荐理由 arXiv 论文(2026-09-09 提交),形式化了一组混淆原语,用其组合的规范形 O_prior 刻画 TEE-Shielded LLM Partition 方法的结构性安全边界,并提出 Collapse 攻击,声称在 ArrowCloak(Security'25)、TSQP(S&P'25)、LoRO(NeurIPS'25)等已发表方法上存在共性漏洞,随后引入两个新原语构成 O_ext 扩展边界。对端侧 LLM 知识产权保护与 TEE 卸载方案有直接参考价值;但攻击效果的具体数据未在摘要中给出,需查阅全文验证。
74
正文
Computer Science > Cryptography and Security
arXiv:2609.10117 (cs)
[Submitted on 9 Sep 2026]
Title:Understanding the Security Boundary of Obfuscation-based On-Device LLM Protection
Authors:Hanyi Zhou, Chenyang Li, Yuanzhe Pang, Ke Xu, Mingwei Xu, Zhuotao Liu
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Abstract:Trusted Execution Environments (TEEs) offer a promising mechanism for safeguarding the intellectual property of on-device Large Language Models (LLMs). To overcome the inherent computational bottlenecks of TEEs, existing TEE-Shielded LLM Partition (TSLP) methods apply efficient obfuscation schemes to computationally intensive layers, offloading them to external GPUs while retaining only lightweight operations within the TEE. Although a growing body of TSLP-based approaches has emerged, these defense mechanisms remain largely heuristic. Consequently, some methods are proven vulnerable to certain specialized adversarial attacks designed to exploit their specific architectural implementations. To overcome the limitations of these heuristic designs, this paper addresses a fundamental research question: can we establish common primitives to unify representative prior methodologies, characterize the security boundary of their compositions, and systematically extend them? To this end, we formalize a set of obfuscation primitives, defined as dual-tuples of linear computations satisfying specific algebraic properties. We demonstrate that the matrix-level weight transformations of the representative efficient TSLP frameworks studied in this paper can be expressed as compositions of these primitives; consequently, the canonical form of these primitive compositions, denoted as O_prior, characterizes the structural boundary of this primitive family. We then expose the vulnerabilities of O_prior through a novel primitive-guided attack methodology, Collapse, demonstrating a shared vulnerability in several prominent TSLP methods published in top-tier venues, such as ArrowCloak (Security'25), TSQP (S&P'25), and LoRO (NeurIPS'25). Finally, we introduce two novel obfuscation primitives and integrate them with existing constructs to formulate O_ext, extending this security boundary.
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Subjects:
Cryptography and Security (cs.CR)
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arXiv:2609.10117 [cs.CR]
(or
arXiv:2609.10117v1 [cs.CR] for this version)
https://doi.org/10.48550/arXiv.2609.10117
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arXiv-issued DOI via DataCite (pending registration)
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From: Hanyi Zhou [view email]
[v1]
Wed, 9 Sep 2026 12:51:55 UTC (1,746 KB)
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