ISACA AAIR study materials
ISACA AAIR study resources

ISACA AAIR cheat sheet

ISACA AAIR · Keep the key ideas within reach.

Quick reference

AI Enterprise Governance

  • AI governance is the system of policies, roles, decision rights, and oversight mechanisms by which an enterprise directs and controls AI use; it answers who decides, who is accountable, and how compliance is evidenced.

  • Board or executive committee owns AI risk appetite and sets tolerance thresholds; a cross-functional AI governance committee (risk, legal, security, data, business, internal audit) converts appetite into standards and approves high-risk use cases.

  • Three lines model: business/IT owns and operates AI (first line), risk and compliance functions set and monitor controls (second line), internal audit provides independent assurance (third line); the first line cannot self-certify its own controls.

  • Policy hierarchy: enterprise AI policy (principles and prohibitions) > standards (model validation, data quality, human oversight) > procedures (workflows, checklists) > control evidence; lower tiers must never relax a higher tier.

  • AI system inventory/registry is the foundational governance artifact: it records each system's owner, purpose, model type, data sources, affected populations, risk tier, and review dates, and drives scoping of all downstream controls.

  • Risk tiering decision rule: classify by potential harm to individuals and the enterprise (safety, legal rights, financial, reputational) and by autonomy and scale; higher tier triggers mandatory human oversight, independent validation, and pre-deployment approval.

  • Accountable executive and business owner must be named for every AI system; 'the AI team' is not an acceptable owner, because accountability must sit with a role that has authority over the use case.

  • Transparency obligations: notify affected users that they are interacting with AI where required, disclose material limitations, and maintain model documentation (intended use, training data, performance, known failure modes) for regulators and auditors.

  • Governance effectiveness is monitored through KRIs: percentage of AI systems inventoried, overdue model reviews, exceptions to policy, incidents per system, and percentage of high-risk systems with completed independent validation.

Quick reference

AI Life Cycle Risk Management

  • Life cycle stages: ideation and intake > design and data sourcing > development and training > validation and testing > deployment > monitoring and operation > decommissioning; each stage has entry criteria and required evidence.

  • Intake/business case must document intended use, prohibited uses, affected stakeholders, data sources, and a preliminary risk tier before any development spend is approved.

  • Data risk controls: verify lawful basis and consent, provenance and lineage, representativeness, labeling quality, and absence of sensitive attributes unless justified; bias testing compares outcomes across protected groups.

  • Model risk is a function of complexity, autonomy, data dependency, and decision impact; higher model risk requires independent validation, challenger models, and documented performance thresholds before release.

  • Validation is performed by parties independent of development and tests accuracy, robustness, fairness, explainability, security (adversarial/prompt injection), and human-oversight effectiveness against pre-defined acceptance criteria.

  • Human-in-the-loop decision rule: the level of oversight scales with harm potential; meaningful oversight requires authority, competence, information, and time to override the AI output, not a nominal click-through.

  • Deployment controls include staged rollout or shadow mode, rollback plans, version pinning, access controls, logging of inputs and outputs, and documented approval by the accountable owner.

  • Post-deployment monitoring tracks data drift, concept drift, performance decay, incident trends, and feedback loops; thresholds trigger revalidation, retraining, restriction, or retirement.

  • Decommissioning requires retiring the model and its data per retention policy, archiving validation evidence, notifying dependent systems, and confirming no residual automated decisions continue.

Quick reference

AI Risk Program Management

  • Program scope: identify, assess, treat, monitor, and report AI risk across the enterprise; the program aligns to the enterprise risk management framework rather than operating as a standalone silo.

  • Risk assessment method: likelihood x impact scoring mapped to the enterprise risk taxonomy, with inherent risk (before controls), residual risk (after controls), and a documented gap to risk appetite.

  • Control library should map to recognized frameworks (e.g., NIST AI RMF, ISO/IEC 42001, ISO/IEC 23894) so controls are traceable to external expectations and auditable.

  • Third-party AI risk: perform due diligence on vendors and foundation-model providers covering training data, security, model change notification, subprocessors, and contractual rights to audit and exit.

  • Incident management must cover AI-specific events (harmful output, bias incident, model compromise, prompt injection, data leakage) with severity classification, escalation paths, and root-cause analysis.

  • Reporting to the board and risk committee uses aggregated risk posture: number of AI systems by tier, open findings and aging, incidents, exceptions, and remediation status against agreed timelines.

  • Training and awareness for developers, business owners, and approvers covers policy obligations, red flags, and escalation routes; completion rates are a program KPI.

  • Independent audit and continuous improvement: periodic assurance reviews test control design and operating effectiveness, and findings feed back into policy, standards, and the control library.

  • Metrics must be decision-useful and tied to appetite; a KRI breaching threshold requires a documented response, owner, and date, otherwise the metric is decorative.