A tailored course, built for your situation
Mastering ISO 22301 for Engineering and Airworthiness Leaders
Build unshakable continuity frameworks in aviation and critical operations
The situation this course is for
Even experienced practitioners can struggle to justify their continuity framework choices when questioned by technical peers or oversight teams. Without a structured, example-backed approach rooted in ISO 22301, it's easy to sound defensive or vague under pressure.
Who this is for
Engineering and airworthiness leaders in aviation, infrastructure, and regulated operations who own system resilience and compliance but face technical scrutiny from internal and external stakeholders
Who this is not for
Entry-level compliance staff, consultants selling generic ISO templates, or those looking for board-level talking points without operational grounding
What you walk away with
- Demonstrate ISO 22301 control intent with aviation-specific examples
- Walk peers through the 'why' behind each design decision using standard language and real implementation logic
- Anticipate technical pushback and respond with documented precedent and cross-referenced clauses
- Align business continuity planning with continuing airworthiness workflows without over-engineering
- Produce audit-ready documentation that reflects deep understanding, not just checkbox compliance
The 12 modules (with all 144 chapters)
- Why engineers resist generic compliance frameworks
- How ISO 22301 supports engineered reliability
- The three pillars of operational resilience
- Mapping standard clauses to technical systems
- Real-world precedent in aviation maintenance logs
- From regulatory text to system design
- Avoiding over-documentation in engineering teams
- Linking continuity planning to MRO cycles
- Using failure mode analysis to justify controls
- Precedent from FAA advisory circulars
- Integrating with existing airworthiness directives
- Building credibility with technical peers
- Identifying critical aircraft systems
- Linking continuity to ETOPS compliance
- Control mapping for avionics downtime
- Spare parts availability as a resilience metric
- Documentation trails for AOG events
- Mapping 8.2 to line maintenance workflows
- Applying Clause 8.3 to engine overhauls
- Tracking control effectiveness via squawk logs
- Integrating with Continuing Airworthiness Management
- Avoiding redundancy without justification
- Just-in-time controls for regional fleets
- Using OEM service bulletins as evidence
- Clause 4: Context in aviation operations
- Clause 5: Leadership in technical oversight
- Clause 6: Risk assessment for fleet grounding
- Clause 7: Competency tracking for engineers
- Clause 8: Operational planning for hangar downtime
- Clause 9: Monitoring via flight log data
- Clause 10: Continual improvement from squawks
- Annex A controls by domain
- Cross-referencing with EASA Part-M
- Using audit findings to refine controls
- Documenting rationale for each deviation
- Peer review protocols for control updates
- Auditor psychology: what they really want
- From 'we comply' to 'here's why it works'
- Using maintenance records as proof
- Linking continuity to safety management
- Responses to common non-conformities
- Justifying control removals with data
- Showing evolution over time
- Using unscheduled AOG events as evidence
- Documenting risk acceptance decisions
- Handling control overlap with SMS
- Presenting to technical reviewers
- Post-audit improvement loops
- Creating a precedent index
- Citing EASA and DGCA bulletins
- Using ICAO Circulars as support
- Internal case studies from fleet events
- Benchmarking against peer operators
- Linking to OEM reliability reports
- Documenting engineering rationale
- Archiving decision trails
- Versioning control justifications
- Peer-validation of reasoning
- Updating precedents after incidents
- Sharing rationale across teams
- Overlap between CAMO and BCMS
- Using airworthiness reviews as audits
- Linking to reliability programmes
- Documenting control changes in CMP
- Involving reliability board in updates
- Using MSG-3 logic for continuity controls
- Aligning with mandatory service letters
- Tracking control effectiveness via defect rates
- Incorporating feedback from pilots
- Linking to flight safety reporting
- Updating controls after AD issuance
- Showing integration in audit responses
- Anticipating engineering pushback
- Explaining controls to non-specialists
- Using system schematics in explanations
- Responding to 'that's overkill' claims
- Linking controls to safety cases
- Handling questions from pilots
- Presenting to senior engineers
- Using maintenance data as evidence
- Clarifying scope boundaries
- Avoiding compliance theater
- Building consensus pre-audit
- Documenting rebuttals for reuse
- Why most BCMS docs fail over time
- Designing for readability by engineers
- Linking controls to maintenance tasks
- Version-controlled rationale logs
- Using plain language in technical docs
- Embedding precedent references
- Cross-referencing to existing manuals
- Creating living SoA templates
- Automating update reminders
- Onboarding new staff with context
- Archiving obsolete justifications
- Ensuring continuity during transitions
- From plan to playbook
- Integrating with MEL process
- Role clarity during disruptions
- Testing with simulated AOG
- Using simulator downtime for drills
- Documenting lessons from drills
- Linking to crew resource management
- Updating plans based on drill results
- Communicating changes to line staff
- Ensuring spare availability matches plan
- Aligning with insurance requirements
- Measuring plan effectiveness
- Assessing vendor continuity plans
- Including clauses in MRO contracts
- Auditing third-party documentation
- Validating spare parts supply chains
- Using DGCA certifications as evidence
- Handling offshore maintenance risks
- Tracking vendor compliance over time
- Involving vendors in drills
- Documenting oversight process
- Using scorecards for performance
- Addressing findings collaboratively
- Terminating underperforming vendors
- Tracking control performance
- Using aircraft downtime logs
- Linking to flight delay data
- Updating controls post-incident
- Benchmarking against peers
- Incorporating pilot feedback
- Using reliability reports as input
- Conducting annual gap assessments
- Prioritizing control updates
- Documenting improvement cycles
- Showing evolution to auditors
- Automating improvement triggers
- Common DGCA review questions
- Preparing responses with evidence
- Using precedent files under pressure
- Handling unexpected audit lines
- Demonstrating continuous improvement
- Presenting to non-technical reviewers
- Linking to safety management data
- Explaining control trade-offs
- Justifying resource allocation
- Documenting risk acceptance
- Responding to peer challenges
- Walking through the 'why' with clarity
How this maps to your situation
- When peers question your control design
- During regulatory continuity reviews
- While integrating with airworthiness management
- When updating documentation after incidents
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 working practitioners to complete alongside active roles.
How this compares to the alternatives
Unlike generic ISO 22301 courses, this programme is built specifically for engineering and airworthiness contexts, giving you the depth to justify decisions in real-world aviation environments, not just pass a classroom test.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.