Whitepaper: AI Governance

Continuous Compliance for Autonomous Agents

A framework for real-time telemetry ingestion and drift detection in non-deterministic AI systems using Splunk Observability.

1. The Non-Deterministic Challenge

Traditional software is deterministic: Input A always yields Output B. Autonomous AI agents, however, are probabilistic. They "drift." As we deploy LLM-based agents into critical infrastructure (see aiops-substrate), ensuring they remain within safety guardrails is not just a nice-to-have—it's a requirement for sovereign operation.

[CRITICAL_WARNING]: Feature-vector drift can lead to unauthorized API execution. Static policies are insufficient.

We solve this by treating Agent "Thoughts" as loggable events. By binding a Splunk Technology Add-on (TA) directly to the agent's runtime environment (TA-asset-identity-framework), we create a "Sidecar Observability" pattern.

2. Architecture: The Telemetry Pipeline

AI Safety Telemetry Pipeline Diagram
Fig 2.1: The Sidecar TA pattern for real-time agent telemetry ingestion.

The architecture consists of three core components:

3. Methodology: Vector Space Drift Detection

How do we know if an agent is "thinking" dangerously? We extract feature vectors from its prompt chain and compare them against a "Safety Manifold"—a pre-computed cluster of approved operational parameters.

Splunk SPL Implementation Strategy

We use Splunk's Machine Learning Toolkit (MLTK/DLTK) to monitor cosine similarity in near real-time.

index=ai_logs sourcetype="suhlabs:agent:thought" | eval embedding = ml_generate_embedding(thought_content) | fit DBSCAN embedding into agent_safety_model | apply agent_safety_model | search cluster_id = -1 | alert level=critical action=kill_agent_process

4. Interactive Safeguard Simulation

Simulate the Drift Detection engine. Enter a command below to see if it triggers the safety kill-switch based on heuristic analysis.

> WAITING_FOR_TELEMETRY...