A tailored course, built for your situation
Mastering ISO 22301 for Equipment Integrity Practitioners
Build continuity frameworks that hold across facilities, vendors, and response teams.
Who this is for
Mid-career equipment engineer in a global manufacturing or semiconductor firm, technically skilled but without formal influence across operations or resilience programs.
Who this is not for
Senior directors with existing BCM mandates, consultants selling ISO 22301 audits, or personnel outside technical operations.
What you walk away with
- Translate equipment health metrics into ISO 22301-compliant continuity documentation
- Design multi-site response workflows that align maintenance, facilities, and vendor teams
- Own the business impact assessment for critical tooling outages
- Produce audit-ready evidence packages that satisfy internal and external reviewers
- Gain standing invitations to regional operations resilience reviews
The 12 modules (with all 144 chapters)
- What ISO 22301 means for plant engineers
- Key clauses impacting maintenance teams
- Mapping downtime to business impact
- Case: 24-hour tool outage at a 300mm fab
- Roles in a site-level BCM team
- How vibration analyst data feeds into BIA
- Integrating ISO 22301 with existing PM schedules
- Common misconceptions in technical teams
- Vendor SLAs and continuity alignment
- Documenting recovery time objectives for tools
- Linking MTTR to BC plan thresholds
- First steps for non-BCM role entry
- Identifying mission-critical equipment
- Failure modes for etch and deposition tools
- Downtime cost per hour by process node
- Mapping tools to customer SKUs
- Vendor parts lead time risks
- Calculating financial exposure
- Scoring operational dependencies
- Engaging production planning for input
- Documenting cascading failure paths
- Rating impact on audit readiness
- Setting thresholds for plan activation
- Template: Equipment BIA workbook
- Threat modeling for semiconductor fabs
- Single points of failure in tool farms
- Utility chain vulnerabilities
- Human error in maintenance workflows
- Seismic and environmental risks
- Cyber-physical system interdependencies
- Vendor-controlled maintenance windows
- Using vibration trends as risk indicators
- Failure probability scoring
- Risk register structure and ownership
- Linking risk to recovery priorities
- Template: Site risk heat map
- Defining recovery strategies for tools
- Cold, warm, and hot standby models
- Minimum viable operation definitions
- Vendor escalation SLAs
- Cross-site tool sharing policies
- Spares inventory tracking
- Remote diagnostics readiness
- Checklist: First 60 minutes post-failure
- Documenting workarounds and bypasses
- Tool requalification timelines
- Change control during recovery
- Template: Tool-specific recovery playbook
- Understanding site BCM governance
- Roles in the emergency response structure
- Reporting chains during major outages
- Participating in incident command
- Equipment data in situation reports
- Communications with site leadership
- Coordinating with EHS and facilities
- Integrating with corporate BCM
- Documenting internal escalation paths
- Vendor inclusion in response plans
- Post-event debriefs and feedback
- Template: Cross-functional coordination matrix
- Required documents under ISO 22301
- Retention policies for test results
- Evidence of annual testing
- Vibration data as continuity proof
- Maintenance logs as audit support
- Writing closure reports for drills
- Document control for BCM files
- Internal review cycles
- Corrective action tracking
- Preparing for surveillance audits
- Common findings in manufacturing sites
- Template: Audit evidence pack
- Types of BCM exercises
- Tabletop scenarios for tool failure
- Simulating vendor non-response
- Drill planning and scheduling
- Involving maintenance teams
- Measuring exercise success
- Tracking deviations in execution
- Updating plans from test results
- Documenting lessons learned
- Reporting outcomes to leadership
- Annual cycle requirements
- Template: Test observation form
- Inputs for management review
- Metrics from actual outages
- Improvement backlog management
- Linking improvements to risk reduction
- Budgeting for continuity upgrades
- Training for new hires
- Technology refreshes and continuity
- Benchmarking against industry peers
- Updating plans after major changes
- Documenting decision rationale
- Role of vibration analyst in review
- Template: Plan improvement tracker
- Assessing vendor BCM maturity
- Incorporating SLAs into recovery plans
- On-site vs remote support models
- Spare parts availability commitments
- Contractual right to audit
- Joint testing arrangements
- Escalation path alignment
- Vendor participation in drills
- Managing multi-vendor dependencies
- Exit strategies for non-compliant vendors
- Reporting vendor performance
- Template: Vendor BCM questionnaire
- Common failure modes across sites
- Shared spare strategies
- Remote tool support models
- Knowledge transfer between teams
- Standardizing recovery procedures
- Centralized documentation hubs
- Regional escalation paths
- Global incident command
- Time-zone aware response planning
- Language and documentation standards
- Lessons from multi-site outages
- Template: Global continuity playbook
- Vibration trends as early failure signals
- Integrating PdM with risk registers
- Predicting tool failure windows
- Alerting on threshold breaches
- Using AI-driven anomaly detection
- Linking maintenance alerts to BC triggers
- Reducing unplanned downtime
- Case: Bearing failure prediction in etchers
- Documentation of predictive inputs
- Training reliability engineers
- Calibrating models to actual failures
- Template: Predictive alert integration guide
- Building credibility across teams
- Presenting data to operations leads
- Contributing to corporate policy
- Mentoring junior analysts
- Publishing best practices
- Speaking at cross-site forums
- Proposing BCM improvements
- Gaining recognition from leadership
- Documenting career growth path
- Maintaining momentum after certification
- Scaling playbooks to new facilities
- Template: Personal influence roadmap
How this maps to your situation
- When you're asked to participate in a business continuity review
- Before your site undergoes an ISO 22301 audit
- After a major tool outage or near-miss
- When onboarding a new vendor with critical support responsibilities
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 to be completed alongside regular duties over 6-8 weeks.
How this compares to the alternatives
Unlike generic ISO 22301 training, this course is tailored to equipment engineers in high-reliability manufacturing, focusing on vibration data, tool recovery, and cross-functional coordination , not theoretical compliance.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.