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This research redefines the threat landscape for AI agents by demonstrating that existing prompt injection evaluations significantly overestimate attack success rates in realistic multi-skill environments. The authors introduce CORSA, a router-aware optimization framework that successfully bypasses skill routers to improve both retrieval and execution of malicious payloads while maintaining user utility. These findings are critical for hardening modular AI systems against sophisticated attacks that leverage the dynamic selection mechanisms inherent in modern agent architectures.
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Surviving the Router: Optimizing Skill Injections for Retrieval and Execution

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2610.08098v1 Announce Type: cross Abstract: AI agents increasingly rely on modular third-party "skills" that are dynamically selected by skill routers to execute complex tasks. While recent studies highlight the threat of prompt injections embedded in these skills, existing evaluations often assume settings where the malicious skill is already selected for execution. We show that this assumption can substantially overestimate attack success. In realistic multi-skill environments, injected skills must first compete for retrieval, reducing the effective attack success rate (ASR) of existing injections by 87-97%. To address this limitation, we introduce CORSA (Cluster Optimization for Router-Aware Skill Attacks), a router-aware attack that optimizes skill injections for both retrieval and execution across clusters of related tasks. We evaluate skill injection attacks under router-managed multi-skill settings by extending the benchmark introduced by SkillRouter with eight malicious payload categories. CORSA uses successive optimization stages to first improve retrieval and then optimize end-to-end attack success, while we evaluate user utility and injection naturalism separately. Our experiments show that CORSA substantially improves both retrieval and end-to-end attack success over existing skill injections while preserving user utility, and that the resulting attacks transfer across different router architectures and LLM backbones.

Abstract:AI agents increasingly rely on modular third-party "skills" that are dynamically selected by skill routers to execute complex tasks. While recent studies highlight the threat of prompt injections embedded in these skills, existing evaluations often assume settings where the malicious skill is already selected for execution. We show that this assumption can substantially overestimate attack success. In realistic multi-skill environments, injected skills must first compete for retrieval, reducing the effective attack success rate (ASR) of existing injections by 87-97%. To address this limitation, we introduce CORSA (Cluster Optimization for Router-Aware Skill Attacks), a router-aware attack that optimizes skill injections for both retrieval and execution across clusters of related tasks. We evaluate skill injection attacks under router-managed multi-skill settings by extending the benchmark introduced by SkillRouter with eight malicious payload categories. CORSA uses successive optimization stages to first improve retrieval and then optimize end-to-end attack success, while we evaluate user utility and injection naturalism separately. Our experiments show that CORSA substantially improves both retrieval and end-to-end attack success over existing skill injections while preserving user utility, and that the resulting attacks transfer across different router architectures and LLM backbones.

Cryptography and Security (cs.CR); Machine Learning (cs.LG)

arXiv:2610.08098 [cs.CR]

(or arXiv:2610.08098v1 [cs.CR] for this version)

https://doi.org/10.48550/arXiv.2610.08098 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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