A tailored course, built for your situation
AI Governance for Safety-Critical Systems
A self-paced, implementation-ready course for engineering leaders embedding AI into high-assurance domains
The situation this course is for
Even with strong functional safety foundations, integrating AI introduces new risks: opaque decision logic, inconsistent validation paths, and evolving regulatory scrutiny. Traditional safety frameworks weren't built for adaptive models. Without a tailored governance layer, teams face rework, audit failures, or worse, safety incidents that erode trust.
Who this is for
Engineering or technical leadership roles in organizations deploying AI within safety-critical systems, automotive, industrial automation, medical devices, aerospace, where ISO 26262, IEC 61508, or similar standards apply.
Who this is not for
This is not for data scientists building proof-of-concept models, or executives seeking high-level AI strategy. It’s not for teams operating outside regulated environments.
What you walk away with
- Establish a governance framework aligned with functional safety and AI assurance principles
- Implement model traceability from requirements to deployment
- Integrate AI validation into existing safety workflows
- Prepare for audits with structured documentation and evidence packs
- Reduce rework by catching compliance gaps early in the development cycle
The 12 modules (with all 144 chapters)
- AI vs traditional software risks
- Safety-critical domains using AI
- Regulatory expectations ahead
- Functional safety overlap
- Governance maturity model
- Stakeholder alignment map
- Risk classification framework
- Assurance boundary definition
- Lifecycle integration points
- Compliance evidence types
- Audit readiness checklist
- Case study: autonomous braking
- Hazard identification process
- Severity vs controllability
- Model autonomy levels
- Failure mode mapping
- Risk matrix customization
- AI-specific hazard types
- Classification decision tree
- Cross-functional review steps
- Documentation standards
- Reclassification triggers
- Toolchain integration
- Case study: perception stack
- Safety goal decomposition
- Model input specification
- Output behavior bounds
- Data lineage tracking
- Version control strategy
- Change impact analysis
- Automated trace checks
- Tool interoperability tips
- Audit trail structure
- Human-in-the-loop points
- Failure response mapping
- Case study: OTA update
- Static vs dynamic validation
- Test data diversity metrics
- Corner case generation
- Simulation fidelity levels
- Real-world monitoring design
- Drift detection thresholds
- Retraining triggers
- Fallback logic validation
- Scenario stress testing
- Performance degradation signs
- Validation report structure
- Case study: weather adaptation
- Assurance case anatomy
- Claim decomposition
- Evidence sufficiency rules
- Argument strength indicators
- Gaps identification method
- Tool-supported authoring
- Peer review process
- Stakeholder tailoring
- Regulatory alignment tips
- Update management
- Visualization best practices
- Case study: L3 system
- Operational mode definitions
- Takeover request design
- Situational awareness cues
- Workload monitoring
- Transition timing rules
- Driver state sensing
- Alert hierarchy setup
- Degraded mode behavior
- Training integration
- Usability testing plan
- Fallback success metrics
- Case study: highway exit
- Data quality dimensions
- Bias detection methods
- Representativeness scoring
- Scenario coverage matrix
- Data versioning strategy
- Annotation consistency rules
- Synthetic data validation
- Privacy-risk balance
- Storage integrity controls
- Access logging setup
- Chain of custody design
- Case study: urban night scene
- Incident classification levels
- Response team roles
- Evidence preservation steps
- Root cause analysis method
- Stakeholder communication plan
- Regulatory reporting triggers
- System rollback procedure
- Customer notification rules
- Post-mortem framework
- Lessons learned integration
- Legal-readiness checklist
- Case study: false positive
- Audit scope definition
- Evidence pack structure
- Compliance mapping table
- Gap analysis method
- Pre-audit rehearsal
- Assessor communication rules
- Documentation standards
- Toolchain output formatting
- Non-conformance handling
- Certification body expectations
- Timeline planning
- Case study: audit outcome
- Governance role definitions
- Cross-team alignment
- Standard template library
- Centralized review board
- Decentralized execution model
- Toolchain standardization
- Knowledge sharing rhythm
- Maturity assessment
- Feedback loop design
- Change adoption strategy
- Performance metrics
- Case study: global rollout
- Ethical risk identification
- Stakeholder impact mapping
- Fairness metrics selection
- Transparency levels by use case
- Accountability framework
- Bias mitigation strategies
- Value alignment methods
- Red teaming process
- Public trust factors
- Escalation pathways
- Documentation requirements
- Case study: pedestrian detection
- Regulatory trend monitoring
- Technology horizon scanning
- Threat model updates
- Architecture flexibility
- Modular design principles
- Re-certification planning
- Stakeholder engagement
- Incident learning loop
- Public communication
- Long-term data strategy
- Decommissioning plan
- Case study: fleet evolution
How this maps to your situation
- You're scaling AI into production systems where safety is non-negotiable
- You need to satisfy internal and external auditors with clear evidence
- You're bridging between AI teams and functional safety experts
- You're designing systems that must adapt without compromising assurance
Before vs. after
What's included with your purchase
- 12 modules with 12 chapters each (144 chapters)
- Downloadable templates and worked examples for every module
- Hand-built implementation playbook delivered alongside course access
- 30-day money-back guarantee
Delivery and format
- Course and learning environment access provisioned within 24 hours of purchase
- Hand-built implementation playbook delivered alongside course access
Format: Text-based modules and chapters in the Art of Service learning environment, plus downloadable templates and worked examples for every chapter, plus the hand-built implementation playbook delivered alongside course access.
Time investment: Approximately 3 hours per module, designed for self-paced learning with implementation milestones.
How this compares to the alternatives
Unlike generic AI ethics courses or academic treatments, this program delivers actionable, safety-aligned governance tools specifically for engineering leaders in regulated environments.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.