Trust Under Fire: How Agentic AI Tests Zero-Trust

Trust Under Fire: How Agentic AI Tests Zero-Trust

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Several teams around the globe are leveraging AI by creating a task force of agents managed by an orchestrator and creating applications to support risk assessment, client profiling, match making, and information yield with a slight overview of decision making. One of the important components for these agents is to ensure that the logs are managed and historic relevance is not being used to avoid skewing towards same decision making. Thus, the system is expected to keep checkpoints in place where agents are prompted to delete such historic relevance.

However, despite such methodology in place, a future prompt could make the agents bring forward the information that was supposed to be deleted and can be tricked into revealing more information, which is a classic case of context recovery attack. So, the question raised here is: How can we trust that our instructions have been followed? And where is the proof?

There is an element of utilizing zero-trust architectures (ZTA) for orchestrating and managing agentic activity, which simply means all agentic interactions use the core principle of “never trust,” “always verify.” ZTA components include a policy enforcement point (PEP) that has to be trusted to maintain trust across the system, so the question that remains is where is the component of zero-trust, and shall we trust the policies enforced by PEP?

Having a pro-agentic approach and utilizing agents could be helpful with the right guardrails in place. Opening our systems to random agents that are being trained on off-the-shelf models and blindly relying on them can pose significant cyber risks. For example, vibe coding by using an AI model to help develop software, giving away the entire codebase to an untrusted entity outside the organization can lead to vulnerability sweeping across multiple surfaces.

Vibe coding by using an AI model to help develop software, giving away the entire codebase to an untrusted entity outside the organization can lead to vulnerability sweeping across multiple surfaces.

This opens critical discussions towards how vibe coding could interfere with the positioning and implementation of trusted execution of the agentic queries. Consider an autonomous web of agents that relies on agents’ inputs to drive the operations. When the system is operating under low tolerance of failure and with non-tracking based agentic workflows, it could be computationally expensive to trust and verify each query in real-time that leads to the common trade-offs of memory vs execution.

Another risk to consider is the zero-day attack. When it happens, how will the system react? Would such an event be manageable without a total infrastructure breakdown? The scale of impact can be observed from over reliance on agentic ecosystems with only one trusted layer. This could mean that when failure occurs, the entire ecosystem could be exposed, just like there will be no autonomy if…

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The post “Trust Under Fire: How Agentic AI Tests Zero-Trust” by Vishal Sharma was published on 11/09/2026 by spectrum.ieee.org