By NHI Mgmt Group Editorial TeamBased on ZioSec: “Enhancing Adaptability in Agentic AI: Challenges and Solutions” (December 26, 2025)

TL;DR: Agentic AI systems that rely on planning, tool use, and memory often degrade outside controlled environments, and the source article highlights why unreliable tools, weak long-term planning, and poor generalization can undermine real-world performance according to ZioSec citing Arxiv. The governance gap is structural: current controls assume deterministic behaviour, but agentic systems adapt mid-session and can drift beyond the conditions IAM teams planned for.


At a glance

What this is: This analysis explains why agentic AI systems can lose reliability when planning, tool use, and memory are combined in open environments, and why that creates a governance gap for enterprise controls.

Why it matters: It matters because IAM, IGA, and security teams need to govern systems whose runtime behaviour can shift inside a session, making static control assumptions too brittle for real operations.


Context

Agentic AI systems are software entities that can plan, use tools, and draw on memory to complete tasks with less human oversight. The problem is not simply that they are automated. It is that their behaviour can change as context changes, which makes static governance assumptions less reliable for enterprise identity and access controls.

The source article frames this as an adaptability problem rather than a model-size problem. In practice, that means real-world failures can appear in tool execution, long-horizon task completion, and generalisation to new environments. For IAM, PAM, and NHI programmes, the question is whether current controls are designed for actors that stay stable long enough to be reviewed, certified, and constrained.

ZioSec's source article points to a broader issue for agentic AI identity governance: the control plane often assumes the actor will behave predictably once access is granted. That assumption becomes weaker when the system can alter its own execution path through planning, memory, and tool selection.


Key questions

Q: What breaks when agentic AI systems adapt outside controlled environments?

A: Static controls break first. When planning, tool use, and memory all change during execution, the system can no longer be governed as a fixed actor with a predictable path from permission to action. That creates gaps in review, testing, and containment because the behaviour being approved is not the behaviour eventually executed.

Q: Why do adaptive agents create more governance risk than ordinary automation?

A: Because they can change their next step based on feedback, context, and prior memory. Ordinary automation usually follows a predetermined path, but an adaptive agent can alter tool choice and task sequence mid-session, which makes access scope, accountability, and safety harder to define in advance.

Q: How do security teams know if agentic AI controls are failing?

A: The main signs are session drift, repeated retry loops, unauthorized tool calls, and behaviour that diverges from the documented task sequence. If the agent keeps moving through steps after intent-to-tool alignment weakens, the system is drifting beyond its control envelope. In practice, teams should measure the full execution path, not isolated prompts.

Q: How should organisations govern memory and retrieval layers in agentic AI?

A: Treat them as part of the identity boundary and change-controlled runtime surface. If memory or retrieval can affect later decisions, they need inventory, ownership, review, and lifecycle controls just like other non-human identity dependencies that shape access and behaviour.


Technical breakdown

Why agentic AI adaptability changes the control problem

Agentic AI systems combine a planning module, a tool-use module, and a memory module. Planning breaks a goal into steps, tools extend the system into external services, and memory lets the system carry context forward across interactions. The technical issue is that these three parts interact at runtime, so the path from intent to action is not fixed at provisioning time. Static controls that were designed for predictable request-response systems struggle when the actor can revise plans, choose tools dynamically, and retain prior context that changes later decisions.

Practical implication: govern the actor's runtime behaviour, not just its initial access grant.

Tool execution and output supervision are not the same control

The article distinguishes adaptation driven by tool execution from adaptation driven only by final outputs. That distinction matters because good-looking outputs do not prove safe tool use, and successful tool calls do not prove the final reasoning remained trustworthy. In agentic environments, supervision must account for the full trajectory, including tool selection, execution feedback, and whether the agent changed behaviour after receiving results. This is a control-design problem, not just a model-evaluation problem.

Practical implication: measure tool trajectories and output quality separately rather than treating one as a proxy for the other.

Memory and retriever adaptation widen the governance surface

The study's adaptation paradigms also cover retrievers, search policies, simulators, and memory components. That means the identity surface is wider than a single model or single agent instance. A system can appear stable while its supporting components change underneath it, which alters what the agent can see, recall, and do. In governance terms, the exposed control surface includes dependencies that can shift the agent's behaviour without changing the agent label itself.

Practical implication: inventory and govern the surrounding tool and memory stack as part of the agent identity boundary.


Threat narrative

Attacker objective: The objective is to manipulate the agent into producing unsafe, incorrect, or compromised actions through its reliance on external tools and adaptive behaviour.

  1. Entry occurs when the agent is connected to external tools such as web search, APIs, code execution environments, or browser automation.
  2. Escalation happens when weak planning or poor generalisation causes the agent to make unstable decisions after receiving tool feedback or new context.
  3. Impact follows when adversarial or harmful inputs steer the agent toward unintended actions, compromised outputs, or unreliable task execution.

Read and download The State of NHI & AI Agent Breach Report 2026, covering 200+ breaches impacting Non-Human Identities including AI Agents.


NHI Mgmt Group analysis

Adaptive agent behaviour invalidates deterministic access assumptions: The article shows that agentic AI systems do not behave like static service accounts once planning, tool use, and memory all influence execution. That matters because enterprise controls often assume the actor will remain stable long enough for policy to be set, reviewed, and enforced. When the agent can re-plan mid-session, the assumption behind fixed access design no longer holds, and practitioners must rethink control timing as much as control scope.

Tool trajectory is the governance unit, not the final answer: The article's distinction between tool execution and final outputs is the right analytic split for agentic governance. Final output review alone cannot tell you whether the system used acceptable tools or reached the result through an unsafe path. For practitioners, this means the control problem sits inside the sequence of decisions, not just at the endpoint.

Memory creates persistence without traditional credentials: The memory module lets an agent carry prior context into future actions, which means behaviour can persist even when the user session looks clean. That is a governance gap for programmes built around visible credentials and discrete login events. Practitioners should treat memory, retrievers, and long-lived context as part of the identity boundary, not as mere application state.

Agentic AI identity needs a boundary model that includes tools, memory, and runtime adaptation: The article's four adaptation paradigms show that agents and tools can be tuned independently, which makes the surrounding ecosystem part of the identity problem. A control model that only tracks the model instance misses the operational reality of distributed adaptation across search, simulation, and memory components. The practical conclusion is that agent governance must map the full execution surface, not a single runtime label.

Adaptability is becoming a security property, not just a performance feature: The article places cybersecurity inside the adaptability discussion for a reason. A system that cannot adapt safely is not simply less useful, it becomes easier to manipulate through bad inputs, unstable tool responses, and context drift. For security teams, reliability and governance are now the same conversation for agentic systems.

From our research library:

What this signals

Adaptive agent governance requires a wider boundary than the model itself: The operational unit is not the LLM alone, but the planning logic, tool chain, memory layer, and retrieval stack that shape what the agent can do next. Teams that only govern the model instance will miss the parts of the system that actually change runtime behaviour.

Agentic AI compliance starts at the point of tool selection: Once the system can revise its own path in response to feedback, access review cadences become a weak control unless they are paired with runtime constraints and trajectory logging. That is why agent governance has to be designed as a live control problem, not a quarterly review exercise. according to the 2026 Infrastructure Identity Survey

Runtime adaptability is the new identity boundary: When an agent can change the way it reaches a result without changing its label, the programme needs a control model that follows execution rather than assumptions. The practical shift is from asking whether the agent is approved to asking whether each adaptive path remains inside policy.


For practitioners

  • Map the full agent execution boundary Document every planning, tool, memory, retriever, and simulator component that can change what the agent does at runtime.
  • Separate tool governance from output review Assess tool selection, tool results, and final answers as different control points instead of relying on one success metric.
  • Treat memory as part of identity scope Include short-term context stores and long-term retrieval layers in access reviews, change control, and offboarding logic.
  • Set runtime guardrails for adaptive agents Define which external tools, data sources, and execution paths an agent may use when its plan changes mid-session.

Key takeaways

  • Agentic AI introduces a governance problem because runtime adaptation can change the actor's behaviour after access has been granted.
  • The article's core signal is that planning, tools, and memory create a broader control surface than traditional static automation.
  • Security teams need runtime guardrails, trajectory review, and memory governance if they want agentic systems to stay within policy.

Standards & Framework Alignment

This section maps relevant standards and security frameworks to the operational risks and controls described in this guidance.

OWASP Agentic AI Top 10 and OWASP Non-Human Identity Top 10 address the attack and risk surface, while NIST AI RMF and NIST CSF 2.0 set the governance and control requirements practitioners need to meet.

FrameworkControl / ReferenceRelevance
OWASP Agentic AI Top 10ASI02 — Tool MisuseThe article centres on agents selecting and using tools in ways that can drift outside policy.
ASI03 — Identity & Privilege AbuseAdaptive agents can extend or reshape privilege through runtime behaviour and context changes.
Recommendation — Constrain agent tool access and log every tool decision against approved boundaries. Review agent privilege boundaries for runtime escalation paths and context-driven scope drift.
NIST AI RMFMANAGE — AI Risk ManagementThe article is about managing operational AI risk from adaptive behaviour and weak generalisation.
Recommendation — Embed runtime monitoring and escalation paths into AI risk management processes.
OWASP Non-Human Identity Top 10NHI-05 — Overprivileged NHIAgentic systems still rely on non-human identity patterns for tool access, making privilege scope central.
Recommendation — Limit agent credentials to the smallest tool and data scope needed for each task.
NIST CSF 2.0PR.AA-05 — Access Permissions, Entitlements and AuthorizationsThe article exposes how access assumptions fail when permissions are evaluated only at grant time.
Recommendation — Continuously validate entitlements for adaptive agents rather than treating authorisation as static.

Key terms

  • Agentic AI: Autonomous AI systems capable of planning, deciding, and taking actions, including calling APIs, writing code, and orchestrating other agents, with minimal human oversight. Agentic AI introduces new NHI risks as agents must authenticate to external services.
  • Tool Trajectory: The sequence of tool calls, feedback, and follow-on actions an agent takes to finish a task. For agentic AI governance, this trajectory is often more important than the final answer because it reveals whether the system stayed within approved boundaries while adapting.
  • Memory Layer: The component that stores and retrieves context so an agent can use prior information in later decisions. In agentic systems, memory expands the identity boundary because stored context can influence future tool use, prompting, and risk even after the original interaction has ended.
  • Runtime Governance: Runtime governance is the set of controls that verify what a system or agent is actually doing after deployment. It combines monitoring, authorization checks, and access validation so teams can detect drift, misuse, or excessive privilege in motion rather than assuming build-time policy still holds.

Deepen your knowledge

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NHIMG Editorial Note
Published by the NHIMG editorial team on June 10, 2026.
Updated on October 10, 2026.
NHI Mgmt Group, the independent authority on Non-Human Identity, IAM, and Agentic AI security. nhimg.org