A tailored course, built for your situation
Mastering ISO 22301 for Senior ML/AI Engineers in Global Tech
A step-by-step system to align AI infrastructure with business continuity standards and gain peer influence in technical governance decisions.
Who this is for
Senior ML/AI Engineers in large tech orgs who own system uptime and need to influence beyond their immediate team.
Who this is not for
Junior engineers, non-technical compliance staff, or teams focused solely on model accuracy without infrastructure ownership.
What you walk away with
- Produce ISO 22301-compliant documentation that passes cross-functional review without iteration
- Gain peer credibility in vendor selection and architecture reviews involving resilience
- Anchor AI infrastructure decisions in continuity standards that leadership trusts
- Reduce business continuity documentation cycles from weeks to days
- Position yourself as the go-to voice on AI system resilience in planning forums
The 12 modules (with all 144 chapters)
- Defining business continuity in AI-driven environments
- How ISO 22301 differs from general reliability engineering
- Mapping AI system components to BCMS requirements
- Key clauses relevant to machine learning infrastructure
- Interpreting 'continuity' in distributed AI systems
- Linking model serving uptime to organizational resilience
- Common misconceptions about AI and BCMS
- Why resilience isn't just about hardware redundancy
- Integrating incident response workflows with BCMS
- Assessing single points of failure in AI pipelines
- Establishing minimum viable continuity for ML services
- Aligning AI uptime goals with business impact thresholds
- Identifying which AI services fall under BCMS scope
- Defining criticality thresholds for AI workloads
- Documenting service-level continuity expectations
- Classifying AI systems by recovery time objectives
- Managing scope creep in large AI environments
- Aligning AI infrastructure scope with network policies
- Handling experimental vs. production AI systems
- Exclusion justification for non-critical AI models
- Integrating scope decisions with change management
- Using RTO and RPO to prioritize AI continuity efforts
- Stakeholder input in AI system scoping
- Maintaining scope documentation for audits
- Threats specific to AI infrastructure components
- Identifying single points of failure in AI pipelines
- Assessing impact of training data unavailability
- Model deployment rollback risks
- Dependency mapping for AI service chains
- Third-party risk in AI model hosting platforms
- Human-in-the-loop failure scenarios
- Monitoring blind spots in AI operations
- Adversarial attack surfaces in model serving
- Data poisoning and latency risks
- Scoring AI risks using ISO 22301 criteria
- Prioritizing risks based on business impact
- Defining downtime cost per minute for AI services
- Measuring opportunity cost of delayed AI inference
- Impact of model drift on downstream processes
- Customer experience degradation from AI failure
- Internal stakeholder reliance on AI outputs
- Regulatory exposure from interrupted AI services
- Reputation risk from public-facing AI outages
- Calculating RTO for AI services using BIA data
- RPO alignment with data pipeline recovery
- Documenting BIA findings for audit readiness
- Updating BIA with model lifecycle changes
- Cross-functional validation of BIA assumptions
- Architectural patterns for resilient AI systems
- Failover design for model serving endpoints
- Data pipeline redundancy options
- Caching strategies to maintain AI service uptime
- Graceful degradation in AI systems
- Multi-region deployment for AI models
- Container orchestration during disruption
- Automated rollback triggers for AI deployments
- Human override mechanisms in critical AI systems
- Backup and restore procedures for model artifacts
- Monitoring continuity strategy effectiveness
- Cost-benefit analysis of different resilience levels
- Defining incident severity levels for AI systems
- AI-specific incident classification and triage
- Notification workflows during AI outages
- Escalation paths for unresolved AI incidents
- Incident response team roles in AI recovery
- Playbooks for model performance degradation
- Handling data pipeline interruptions
- Root cause analysis for AI system failures
- Post-mortem documentation for AI outages
- Integrating AI incident data into BCMS
- Training engineers on AI incident response
- Testing incident response for AI scenarios
- Writing recovery procedures for model serving
- Data pipeline restoration steps
- AI model version rollback instructions
- Authentication system recovery for AI access
- Monitoring system recovery after disruption
- Database recovery for AI metadata
- Feature store availability during recovery
- API gateway recovery for AI services
- Rate limiting adjustments post-recovery
- Validation steps after AI system recovery
- Documentation standards for recovery procedures
- Maintaining up-to-date recovery documentation
- Designing safe tests for AI system continuity
- Tabletop exercises for AI incident scenarios
- Simulating data pipeline failures
- Testing model rollback procedures
- Measuring recovery time objectively
- Documenting test results for compliance
- Improving plans based on test outcomes
- Frequency of AI continuity testing
- Involving cross-functional teams in exercises
- Remote testing options for distributed teams
- Automated validation of continuity readiness
- Reporting test results to technical leads
- Tracking changes to AI system architecture
- Updating continuity plans after model updates
- Version control for recovery procedures
- Change management integration with BCMS
- Audit trail requirements for plan modifications
- Regular reviews of AI continuity documentation
- Stale documentation detection
- Automated checks for documentation accuracy
- Handling temporary changes to AI systems
- Documentation ownership in AI teams
- Archiving outdated continuity plans
- Ensuring documentation accessibility
- Metrics for AI system continuity performance
- Reporting uptime and recovery data
- Presenting BCMS findings to engineering leads
- Identifying improvement opportunities
- Tracking corrective actions for AI issues
- Benchmarking against industry standards
- Incident trend analysis for AI systems
- Resource planning for continuity improvements
- Feedback loops with incident response
- Aligning AI continuity goals with org strategy
- Planning for AI system growth and scaling
- Reviewing BCMS effectiveness quarterly
- Planning internal audits for AI systems
- Audit criteria for AI infrastructure
- Sampling methods for AI continuity checks
- Conducting interviews with AI team members
- Reviewing documentation completeness
- Testing recovery procedure accuracy
- Identifying non-conformities in AI BCMS
- Reporting audit findings to technical leads
- Tracking corrective actions post-audit
- Preparing for external certification audits
- Using audit results to improve AI systems
- Maintaining audit records for compliance
- Introducing BCMS concepts to AI engineering teams
- Building continuity into AI development lifecycle
- Training programs for AI engineers
- Automating BCMS evidence collection
- Integrating BCMS with CI/CD pipelines
- Leadership engagement in AI continuity
- Scaling BCMS across multiple AI projects
- Balancing innovation with resilience
- Sharing best practices across AI teams
- Measuring BCMS maturity in AI orgs
- Future trends in AI system resilience
- Closing the gap between policy and practice
How this maps to your situation
- AI infrastructure ownership
- Technical governance influence
- Cross-functional documentation alignment
- Resilience standards adoption
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 90 minutes per week over six weeks to complete all modules and apply templates.
How this compares to the alternatives
Generic BCMS courses ignore AI-specific risks; internal templates lack standardization; consultants charge $15k+ for fragmented advice. This course delivers a complete, field-tested system tailored to AI engineers.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.