Riding the AI Wave — No Face-Planting

Enterprise-grade AI governance: stopping drift from becoming a rip tide.

Introduction: capability and responsibility

As organisations move from experimenting with large language models to deploying agentic systems – systems that can reason, decide, and take action – the risk profile changes fundamentally. An AI system that merely generates text is one thing. An AI system that can trigger workflows, write to enterprise systems, or act autonomously in production environments is something else entirely.

At that point, the question is no longer just “Is the model accurate?” but also “Could the system get us into trouble if it is not properly governed?”

This articulation is not speculative. It is reflected directly in how security and risk bodies now frame AI risk.

What actually goes wrong in AI systems per OWASP

Recent guidance does not frame AI risk primarily as hallucination. Instead, it focuses on system-level failures.

The OWASP Top 10 for Large Language Model Applications explicitly identifies risks such as:

  • Excessive Agency – granting an LLM the ability to take actions without sufficient constraint or oversight
  • Insecure Output Handling – treating model outputs as trusted instructions rather than untrusted input
  • Improper Access Control – allowing LLM-driven components to interact with systems beyond their intended scope

These are not model defects; they are architectural and governance failures (OWASP, 2023).

Similarly, research from Anthropic and others shows that prompt injection remains a significant challenge for agentic systems that ingest external or untrusted content. This is not solved by better prompting alone; it is a systemic risk requiring structural controls.

The emerging consensus across these sources is clear: the dominant risks arise when models are allowed to act without sufficient constraint, validation, or separation of duties.

Loss of governance, not intelligence, is the dominant risk when scaling AI

This framing aligns closely with the NIST AI Risk Management Framework, which emphasises:

  • Defined roles and accountability
  • Human oversight proportional to risk
  • Separation between AI recommendations and operational decisions
  • Continuous monitoring and feedback mechanisms

None of this is new. These are established controls from finance, safety-critical engineering, and regulated IT. What has changed is the temptation to ignore them because AI feels “smart enough.” It isn’t. AI systems are probabilistic, and anthropomorphism is how drift begins.

And drift will occur—regardless of instructions to the contrary.

Which brings us to what might be called Pirate Code Syndrome: treating controls as optional guidance rather than binding constraint. Or, as Captain Barbossa put it in Pirates of the Caribbean: “The code is more what you’d call guidelines than actual rules.”

This is not pessimism; it is systems engineering. Drift is a known property of probabilistic systems operating without hard constraints. The corrective action is structural, not instructional. The tone may sound austere, but the fix is surprisingly lightweight.

The good news is most of the effort lies in design discipline, not runtime burden.

A pattern that resists drift

In practice, teams that deploy AI safely at scale tend to converge on a similar architectural pattern, whether they describe it explicitly or not:

AI Gateway → Policy Engine → Tool Gateway → Workflow approvals

Each component plays a distinct role:

  • AI Gateway Centralises model access, enforces input/output constraints, and prevents direct system interaction.
  • Policy Engine Applies deterministic rules: what actions are allowed, under what conditions, and with what level of confidence or approval.
  • Tool Gateway Exposes enterprise systems through capability-based interfaces rather than raw credentials.
  • Workflow orchestration (e.g. n8n) Handles approvals, retries, escalation, and human-in-the-loop controls.

This separation matters because it ensures that reasoning does not equal authority. The model may propose actions, but the platform decides whether those actions are permitted.

Guardrails that are defensible and not decorative

Across published standards and operational experience, several guardrails consistently emerge as necessary—not optional:

  1. Schema-bound outputs Model responses should be validated against explicit schemas before they are acted upon. This directly mitigates insecure output handling.
  2. Capability-based access control AI components should operate under least-privilege principles, with permissions scoped by role, tenant, and operation.
  3. Explicit approval gates for write actions Particularly where actions affect financial, customer, or regulatory systems.
  4. Separation of reasoning and execution Models should not execute actions directly against enterprise systems.
  5. Risk-based observability Continuous metrics with deep tracing triggered only when thresholds are crossed, rather than blanket logging.
  6. Defined human escalation paths When confidence is low, evidence conflicts, or policy boundaries are approached.

Each of these aligns directly with either OWASP LLM risk categories or NIST AI RMF guidance. None rely on speculative claims about future AI behaviour.

Why this matters to Enterprise

For leadership teams, the implication is straightforward:

The first decision is tooling – adopting AI; but the follow on needs to a governance decision.

Just as no CFO would allow an automated system to post journals without controls, reconciliation, and auditability, no organisation should allow AI systems to act operationally without equivalent discipline.

The cost of getting this wrong is not theoretical. It shows up as compliance breaches, data exposure, operational outages, and reputational damage—often amplified by the speed at which AI systems operate.

Conclusion: balance beats bravado

Riding the AI wave is not about resisting momentum. It is about maintaining balance, so you can step off your surfboard in the shallows with a justified smug look—having never lost control.

Enterprise-grade AI is defined by how autonomous it is, but also by how well its autonomy is bounded, observable, and accountable. Governance is not the leash that drags you under; it is the stabiliser that keeps you upright (more surfing analygies).

The practical question every organisation must answer is therefore simple:

Where is your approval boundary for AI-initiated actions—and who is accountable for it and what does your architecture look like.

Architectural Blueprint

Channels → Double AI Gateway Validation → Policy Engine → Tool Gateway → Systems

Clients / Channels (Users, apps, n8n triggers) What: Entry points that request work. Why: Keeps interaction surfaces separate from AI internals.

AI Gateway (single front door to the model) What: Auth + request shaping + schema-enforced responses. Why: Treats model output as untrusted; reduces unsafe “freeform” execution risk.

Policy Engine (decision boundary) What: Deterministic allow/deny rules, risk tiering, approval requirements. Why: Implements governance and accountability in code, not prompts.

Tool Gateway (capability-based connectors) What: Controlled adapters to ERP/CRM/DB/email with least-privilege permissions. Why: Prevents “keys to the kingdom” patterns; scopes what AI can do.

Workflow Orchestrator (n8n) What: Approvals, retries, human-in-the-loop, scheduling, audit-friendly flows. Why: Operational control sits outside the model; easy to gate risky actions.

Data Layer (read models + governed sources) What: Curated datasets / marts / KB with provenance and access controls. Why: Reduces ambiguity; supports traceable, reviewable outputs.

Observability & Audit (metrics + thresholded tracing) What: Schema failure rates, tool-call failures, escalation counts; traces on risk. Why: Detects drift early and supports incident response.

Identity & Secrets (IAM, KMS, vault) What: Service identities, token issuance, secret storage, rotation. Why: Prevents credential sprawl; enforces separation of duties.

References

  • OWASP Foundation. Top 10 for Large Language Model Applications (2023)
  • NIST. AI Risk Management Framework (AI RMF 1.0) (2023)
  • Anthropic. Prompt Injection and Defenses in LLM Applications (2023)

Hashtags: #AIGovernance, #EnterpriseAI, #ResponsibleAI, #AIArchitecture, #RiskManagement, #GhostGen.AI

DisclaimerThe views expressed in this article are those of the author and are based on professional experience in enterprise systems, risk management, and governance. This content is provided for general informational purposes only and does not constitute legal, regulatory, security, or compliance advice. Implementation of AI systems, controls, or architectures should be undertaken only after appropriate risk assessment and consultation with qualified legal, security, and compliance professionals. The author accepts no responsibility for actions taken based on this material.

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