Containment is a Vanity Metric: Why AI Agent Evaluation Must Measure Intent-Level Correctness
Containment percentage is actively harmful as a primary evaluation metric because it rewards non-escalation over correct handling of high-value intents; organizations should replace it with intent-conditional success metrics.
AngleCritique of current industry practice, with a proposal for an alternative metric and evidence from banking examples.
Source video ↗Governance Over Capability: The Case for Weighting Boundaries and Observability Above Skills and Tools in Agent Readiness
The most heavily weighted pillar in agent evaluation should be governance—error tolerance, risk, compliance, observability, drift, accuracy, and tone—because controllability and inspectability dominate capability when agents face real business outcomes.
AngleArgue against feature-count-driven agent selection, using the 39/100 governance weighting and Agent B example.
Source video ↗The Interview Never Ends: Why AI Agent Evaluation Must Be a Continuous, Baseline-Anchored Cadence
Agent evaluation cannot be a one-time pre-deployment gate; it must be a weekly, human-baseline-anchored loop to catch performance drift, and manual inspection is a legitimate interim state.
AngleOperationalizing continuous evaluation with a maturity scale that decouples measurement from automation.
Source video ↗From Subjective Debates to Auditable Arithmetic: A Weighted Maturity Score for Agent Readiness
A weighted 0-2 score across 26 components normalized to 100 provides an auditable decision artifact that replaces subjective readiness debates, but its weights are a policy knob that must be tuned transparently.
AngleExplain the scoring mechanism and its implications for procurement and internal readiness decisions.
Source video ↗Intent-Aware Containment Replacement (IACR)
beyond-evalsAn intent-conditional correctness metric (correct routing/handoff rate for high-value intents) will rank agents differently than containment, and in a banking customer service simulation, an agent with high containment but low intent-correctness will be correctly identified as worse than a lower-containment agent with high intent-correctness.
Proof of conceptBuild a simulated banking customer service environment with defined intents (e.g., refinancing, balance inquiry). Instrument two agents: one optimized for containment, one for correct routing. Measure both containment and intent-correctness on a test set of high-value intents.
MeasurementRank correlation between containment and intent-correctness; delta in incorrect high-value outcomes.
Source video ↗Human Baseline as a Service (HBaaS)
gatehouseA sampled human baseline (expert-scored live traffic) can be maintained at acceptable cost and used to detect weekly agent drift, and baseline drift itself is measurable and manageable.
Proof of conceptFor a given domain (e.g., banking customer service), sample live agent conversations weekly, have human experts score correctness and routing. Track baseline scores over 6 weeks to measure baseline stability and labeling cost.
MeasurementCost per labeled conversation, baseline variance, and detection rate of agent drift against baseline.
Source video ↗Drift Detection Cadence Optimizer
movement-labThere exists a cost-optimal evaluation cadence (e.g., daily vs weekly vs monthly) that minimizes total cost (evaluation + missed drift damage) for a given domain, and weekly is not universally optimal.
Proof of conceptInstrument a deployed agent's performance on live traffic, compute a drift signal at daily granularity. Simulate evaluation at different cadences using historical data to estimate time-to-detection and cumulative drift damage. Optimize cadence.
MeasurementTime-to-detection at each cadence, total cost (evaluation cost + drift damage cost).
Source video ↗Weight Sensitivity Analyzer for Agent Readiness Scores
newAgent readiness rankings are sensitive to the weighting of the 26 components, and small changes in weights (e.g., reducing governance from 39 to 30) can flip the ranking of two agents, indicating that weights must be set explicitly according to business priorities.
Proof of conceptImplement the 26-component maturity scoring model. For a set of 10 agent configurations with component scores, run a Monte Carlo simulation varying weights within plausible ranges. Measure ranking stability (e.g., Kendall tau) and identify weight thresholds that flip rankings.
MeasurementRanking stability metrics (e.g., probability of rank inversion), sensitivity indices for each weight.
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