AI-RRS study materials
AI-RRS study resources

AI-RRS cheat sheet

AI-RRS · Keep the key ideas within reach.

Quick reference

AI and Algorithm Risk Fundamentals

  • AI risk = potential for harm from AI system behavior, outputs, or use, spanning individuals, groups, organizations, and society.

  • Model risk arises from three sources: model error (wrong outputs), model use (misapplied outputs), and implementation (deployment/engineering failures).

  • Key failure modes: bias, brittleness to distribution shift, opacity, hallucination, reward hacking, and specification gaming.

  • Bias taxonomy: historical bias (data reflects past inequity), representation bias (under-sampled groups), measurement bias (bad proxy labels), aggregation bias (Simpson's paradox).

  • Distribution shift types: covariate shift (input distribution changes), label shift (output prevalence changes), concept drift (input-output relationship changes).

  • Algorithmic risk is amplified by scale, automation (no human check), feedback loops, and generalization beyond training context.

  • Risk severity is a function of likelihood, magnitude of harm, reversibility, scope of affected population, and detectability.

  • Explainability-accuracy tradeoff: complex models often gain predictive performance at the cost of interpretability, raising accountability risk.

Quick reference

AI Risk Governance and Frameworks

  • Three-lines-of-defense model for AI: first line builds/operates, second line sets risk policy and oversight, third line (internal audit) independently assures.

  • NIST AI Risk Management Framework core functions: Govern, Map, Measure, Manage - Govern is cross-cutting and continuous.

  • NIST AI RMF is voluntary and outcome-based; it is not a certification or prescriptive checklist.

  • OECD AI Principles: inclusive growth, human-centered values, transparency/explainability, robustness/safety, and accountability.

  • ISO/IEC 42001 specifies requirements for an AI management system (AIMS), following the Plan-Do-Check-Act structure like ISO 27001.

  • EU AI Act risk tiers: unacceptable (prohibited), high-risk (conformity assessment required), limited-risk (transparency obligations), minimal-risk.

  • Board-level governance requires an AI risk appetite statement, clear ownership/accountability, and escalation paths.

  • Model inventory and risk tiering are foundational governance artifacts; tier drives required controls and review cadence.

Quick reference

AI Risk Identification and Assessment

  • Risk identification inputs: model purpose, data provenance, affected stakeholders, deployment context, and third-party dependencies.

  • Risk tiering criteria typically include decision impact on individuals, autonomy level, data sensitivity, scale, and reversibility of harm.

  • Fairness metrics are context-dependent: demographic parity (equal positive rates), equalized odds (equal TPR/FPR), predictive parity (equal PPV).

  • Fairness metric tradeoffs are mathematically unavoidable in most cases; choosing a metric is a values/legal decision, not purely technical.

  • Model validation should test performance on out-of-sample and out-of-distribution data, subgroup slices, and adversarial/edge cases.

  • Threat modeling for AI includes data poisoning, evasion/adversarial inputs, model extraction, membership inference, and prompt injection.

  • Qualitative assessment (e.g., risk matrices, scenario analysis) complements quantitative metrics where harms are hard to measure.

  • Residual risk = inherent risk after controls; acceptance decisions must be documented against the risk appetite.

Quick reference

AI Risk Mitigation and Controls

  • Control categories: preventive (stop harm before it occurs), detective (identify harm), corrective (remediate), and compensating (alternative when primary control infeasible).

  • Data controls: provenance tracking, consent/legal basis verification, de-identification, bias testing, and data quality gates.

  • Model controls: robust training, fairness constraints, red-teaming, adversarial testing, uncertainty estimation, and output guardrails.

  • Human-in-the-loop (HITL) is a control whose strength depends on reviewer authority, information quality, and time - rubber-stamping defeats it.

  • Deployment controls: rate limits, input/output filtering, sandboxing, canary rollout, and kill-switch/rollback capability.

  • Monitoring and drift detection are detective controls; retraining pipelines are corrective controls.

  • Third-party/vendor AI risk requires due diligence, contractual audit rights, model documentation, and exit/portability provisions.

  • Defense-in-depth: layer independent controls so a single control failure does not produce unmitigated harm.

Quick reference

AI Risk Monitoring, Reporting, and Regulatory Compliance

  • Monitoring KPIs include model performance decay, drift statistics, fairness metric deltas, override rate, incident rate, and complaint volume.

  • Alert thresholds should be set pre-deployment with defined escalation and response SLAs.

  • Model documentation artifacts: model card (performance/limitations), datasheet (dataset provenance), and system card.

  • Incident management requires detection, triage, containment, root cause analysis, and post-incident review with remediation tracking.

  • Regulatory reporting obligations vary by jurisdiction; the EU AI Act requires serious-incident reporting for high-risk systems.

  • GDPR-relevant AI rights include access, explanation of automated decisions (Art. 22), rectification, and erasure.

  • Audit trail requirements: versioned models, datasets, configurations, and decision logs sufficient to reconstruct outcomes.

  • Continuous monitoring frequency should be risk-tiered: higher-impact models require more frequent review and independent validation.