By NHI Mgmt Group Editorial TeamPublished 2026-06-25Domain: Agentic AI & NHIsSource: Collibra

TL;DR: AI observability must now track the data AI systems read, the outputs they produce, and the actions autonomous agents take in production, because model metrics alone miss downstream risk, according to Collibra. Access reviews assume privilege is stable enough to be observed, but agents can execute, chain tools, and change state faster than traditional governance cycles.


At a glance

What this is: This is a practical explanation of AI observability and its expansion from model monitoring to autonomous agent behavior in production.

Why it matters: It matters because identity, access, and governance teams now need visibility into what AI systems touch, what they can do, and who owns those actions across NHI, autonomous, and human programmes.

👉 Read Collibra's analysis of AI observability for models and agents in production


Context

AI observability is the discipline of measuring what AI systems actually do once they are live, not just whether a model scored well in testing. For IAM and security teams, the hard part is that autonomous agents do not stop at prediction. They take actions, call tools, and touch data, which makes identity governance part of the observability problem.

The governance gap is that traditional monitoring was built for static systems and isolated model metrics. Once an agent can execute a refund, query a database, or invoke another agent, teams need evidence of action, ownership, and policy compliance in the same operational view. That is why AI observability now sits close to NHI governance and agentic AI identity control.


Key questions

Q: How should security teams govern AI agents that can take actions in production?

A: Security teams should govern action-capable AI agents like high-risk identities, not like passive models. That means assigning ownership, defining allowed actions and data scope, capturing decision traces, and linking runtime signals to policy enforcement. If an agent can call tools or change state, observability and access governance must operate together.

Q: Why do AI agents create more governance risk than model-only systems?

A: AI agents create more governance risk because they do things, not just predict things. A model can be evaluated on accuracy, but an agent can read data, execute workflows, and trigger downstream systems. That expands the blast radius from a bad score to a bad action, which is why continuous runtime evidence matters.

Q: What signals show that an AI system is drifting outside its approved use case?

A: The clearest signals are unexpected tool calls, access to data outside the approved scope, repeated retrieval of unneeded context, and actions that diverge from the documented workflow. If ownership, lineage, or policy posture is missing from the telemetry, teams cannot tell whether the system is drifting or simply behaving as designed.

Q: How do observability and compliance fit together for AI systems?

A: Observability supports compliance by turning runtime behaviour into evidence. Regulators and auditors want to know what data the system touched, who owns it, what decision path it followed, and whether it stayed inside policy. Without that evidence chain, compliance becomes reconstruction after the fact rather than control during operation.


Technical breakdown

Why model monitoring is not enough for agent behaviour

Model monitoring tracks metrics such as latency, accuracy, or drift. AI observability has to go further because agents create side effects. A model returns a score, but an agent also retrieves context, calls tools, writes records, and may trigger another workflow. That means the relevant signal is not only output quality but also decision trace, data access, and downstream action. In practice, observability becomes a control plane for evidence, not just a dashboard for status. The question changes from whether the model is performing to whether the system is staying inside its permitted operating envelope.

Practical implication: register each AI system with an owner, policy, and expected behaviour profile before production use.

How decision traces expose agent tool-use risk

Decision traces record the steps an agent took, the tools it invoked, and the context it used to decide. This matters because agent failures are often three hops removed from the visible symptom. Without traceability, teams may see a bad outcome but not the tool call, retrieved document, or delegated action that caused it. For identity and access teams, decision traces are the bridge between runtime behaviour and entitlement review. They show not only what happened, but whether the action matched the approved use case and the permitted data scope.

Practical implication: require decision traces for every production agent that can read data or take an action on behalf of a user.

What one control plane changes for AI governance

A single control plane is useful only if it joins ownership, policy posture, and runtime evidence. In AI environments, that combination turns scattered signals into an auditable chain from deployment to action. The stronger pattern is code-first registration, risk classification, live signal collection, and intervention capability in the same workflow. That aligns closely with NIST AI Risk Management Framework expectations for governance and accountability, while also fitting zero trust thinking about continuous verification. The control question is no longer whether you can observe the model, but whether you can explain and stop the behaviour that matters.

Practical implication: define a stop-or-pause path for high-risk agents before broad production rollout.



NHI Mgmt Group analysis

AI observability is now an identity control problem, not just an engineering telemetry problem. The article correctly shows that agents emit actions, not only predictions, which changes what must be governed. Once tool use, data access, and delegated execution are part of the runtime, identity, entitlement, and ownership data become observability inputs. Practitioners should treat runtime AI evidence as part of access governance, not a separate monitoring layer.

AI monitoring was designed for systems that stay still long enough to score; agents do not. Traditional monitoring assumes a bounded metric cycle, but agent behaviour is eventful, chained, and continuous. That makes the underlying control model incomplete for autonomous execution, because the important unit of risk is a completed action, not a degraded score. The implication is that identity governance cannot rely on post hoc review alone when the actor can act and move on within the same session.

Decision traceability is the named concept that closes the observability gap. A trace is not just logging. It is the evidence chain that connects input, retrieval, tool call, and outcome to a responsible owner and approved use case. That is what lets a security team distinguish acceptable agent behaviour from policy drift. Practitioners should insist on traceability where AI systems can read sensitive data or trigger operational change.

AI observability collapses the boundary between model governance and access governance. The strongest signal in the article is that policy posture, lineage, and ownership are treated as first-class telemetry. That aligns with how modern identity programmes already work for privileged human access and machine identities. The broader lesson is that AI systems need the same accountability structure as other high-risk identities, only with faster runtime movement and richer side effects.

The market is moving toward runtime governance for AI, not retrospective assurance. The article’s control-plane framing reflects where practitioner demand is heading: continuous evidence, not launch-time attestation. That direction matters because observability without intervention is only half a control. Teams should expect AI governance to converge with NHI-style lifecycle controls, because both problems are now about who can do what, when, and with which evidence.

From our research:

  • 72% of organisations have experienced or suspect they have experienced a breach of non-human identities, with 46% confirmed and 26% suspected, according to The 2024 ESG Report: Managing Non-Human Identities.
  • The average organisation believes more than 1 in 5 of their non-human identities are insufficiently secured, which shows how visibility gaps become governance gaps before an incident does.
  • That is why practitioners should also review the NHI Lifecycle Management Guide for ownership, rotation, and offboarding patterns that help close the runtime evidence gap.

What this signals

Decision traceability is becoming the practical dividing line between usable AI and governable AI. As AI systems move from prediction into action, teams will need runtime evidence that can survive audit, incident review, and access certification. That makes observability a lifecycle discipline, not a dashboard choice, and it belongs alongside the NHI Lifecycle Management Guide in any serious governance programme.

With 72% of organisations already reporting or suspecting a breach of non-human identities, per The 2024 ESG Report: Managing Non-Human Identities, identity visibility is no longer a niche control issue. The next programme step is to connect runtime AI signals to ownership, policy, and intervention so detection turns into enforceable governance.

Observability will increasingly be judged by whether it can answer one operational question: who approved the system, what can it touch, and can someone stop it before the next action completes. Teams that cannot answer that question for AI agents will struggle to answer it for the rest of their NHI estate as well.


For practitioners

  • Define AI system ownership at registration Capture each model, agent, and use case with a named owner, risk tier, and approved purpose before it reaches production. Link the registration record to the team that can approve changes and investigate drift.
  • Require decision traces for action-capable agents Log the tools used, retrieved context, decisions made, and the resulting action for any agent that can touch data or trigger workflows. Make trace review part of incident triage and access review.
  • Tie observability signals to policy posture Map runtime AI signals to the policies the system must satisfy, including data-access limits, delegated execution rules, and regulatory obligations. Use that mapping to decide whether the system can stay live.
  • Build a pause path for high-risk agents Create a documented intervention path that can suspend agent execution before more actions complete. Test that pause path in production-like conditions so operators know who can act and how quickly.

Key takeaways

  • AI observability has moved from model health checking to runtime governance of actions, data access, and delegated behaviour.
  • Traditional monitoring misses the control points that matter for autonomous agents because it sees outcomes without enough execution evidence.
  • Identity teams should connect ownership, decision traces, and policy enforcement so AI systems can be explained, reviewed, and paused in production.

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 address the attack and risk surface, while NIST AI RMF and NIST Zero Trust (SP 800-207) set the governance and control requirements practitioners need to meet.

FrameworkControl / ReferenceRelevance
OWASP Agentic AI Top 10A1Agent tool use and action traces map directly to runtime misuse risk.
NIST AI RMFGovernance and accountability are central to continuous AI observability.
NIST Zero Trust (SP 800-207)PR.AC-4Continuous verification fits agent action monitoring and policy enforcement.

Assign owners, monitor behavior, and keep intervention evidence for each AI system.


Key terms

  • AI Observability: AI observability is the ability to see what an AI system is doing in production, why it is doing it, and whether it is staying inside approved behaviour. For agents, that includes actions, tool calls, data access, and decision traces, not only model scores or latency.
  • Decision Trace: A decision trace is the evidence chain showing how an AI system reached an action, including retrieved context, tool usage, and intermediate steps. In agentic environments, it is the practical bridge between runtime behaviour and auditability, because it explains both the cause and the consequence of an action.
  • Control Plane: A control plane is the operational layer that registers systems, applies policy, and coordinates oversight across a fleet of AI services. In this context, it matters because governance becomes effective only when ownership, risk, and intervention are managed from the same place as runtime evidence.
  • Runtime Evidence: Runtime evidence is the live record of what a system touched, decided, and changed after deployment. For AI and NHI governance, it is the proof used to assess whether behaviour matched policy, and it becomes essential when a system can act before a manual review cycle can catch up.

Deepen your knowledge

NHI governance, agentic AI identity, and machine identity security are core topics in our NHI Foundation Level course, the industry's only accredited NHI security programme. If you are responsible for identity security strategy or programme maturity, it is worth exploring.

This post draws on content published by Collibra: AI Observability Explained: How to Monitor Models and Agents in Production From One Command Center. Read the original.

NHIMG Editorial Note
Published by the NHIMG editorial team on 2026-06-25.
NHI Mgmt Group — the independent authority on Non-Human Identity, IAM, and Agentic AI security. nhimg.org