A tailored course, built for your situation
Advanced ISO 26262 Implementation for Product Leaders
Master functional safety at scale with real-world application frameworks
The situation this course is for
Professionals often struggle to move from understanding ISO 26262 clauses to applying them in complex, cross-functional development environments. Gaps appear in traceability, work product alignment, and safety case construction, especially when scaling across platforms or integrating third-party components.
Who this is for
Technical leads, systems engineers, product managers, and compliance officers in automotive and mobility technology organizations who are responsible for delivering safety-certified systems
Who this is not for
This is not for entry-level engineers or those seeking certification exam prep. It assumes prior familiarity with ISO 26262 and focuses on implementation rigor, not introductory concepts.
What you walk away with
- Apply ISO 26262 requirements to real product development cycles
- Build auditable safety cases with traceable work products
- Lead cross-functional teams through ASIL decomposition and allocation
- Integrate functional safety into agile and model-based development
- Navigate tool qualification and third-party component certification
The 12 modules (with all 144 chapters)
- Defining safety culture beyond compliance
- Leadership roles in safety governance
- Safety metrics that matter
- Integrating safety into innovation cycles
- Regulatory expectations across regions
- Safety in startup vs. OEM environments
- Building psychological safety in safety-critical teams
- Documenting safety culture for audits
- Common cultural pitfalls in scaling
- Measuring cultural maturity
- Case study: culture shift at Tier 1 supplier
- Action plan for culture improvement
- Principles of hazard analysis
- Semi-quantitative severity assessment
- Exposure and controllability scoring
- ASIL tailoring guidelines
- Decomposition rules and limitations
- Common decomposition errors
- ASIL downgrading with justification
- Tool support for ASIL analysis
- Integration with FMEA
- Cross-system interaction risks
- Case study: ADAS system decomposition
- Template: ASIL worksheet
- Defining safety management scope
- Roles: Safety Manager, Safety Engineer, Auditor
- Planning safety activities
- Safety plan components
- Integration with project management
- Resource allocation for safety tasks
- Managing distributed teams
- Safety change control process
- Audit readiness preparation
- Continuous improvement loops
- Case study: safety plan for ECU development
- Template: Safety management checklist
- Deriving technical safety requirements
- Unambiguous requirement writing
- Allocation to hardware and software
- Handling bidirectional dependencies
- Traceability best practices
- Managing requirement volatility
- Safety requirement prioritization
- Tool-assisted traceability
- Common gaps in allocation
- Verification planning at requirement level
- Case study: braking system allocation
- Template: Safety requirement specification
- Hardware safety goals
- Architectural patterns for redundancy
- Diagnostics coverage calculation
- Single point fault metrics
- Latent fault metrics
- Probabilistic metrics interpretation
- Hardware design reviews
- Failure mode impact on safety
- Tool qualification for hardware tools
- Common hardware design flaws
- Case study: microcontroller selection
- Template: Hardware safety analysis report
- Software safety requirements
- Software architecture for safety
- Modular design principles
- Coding standards for safety
- Static analysis integration
- Dynamic testing strategies
- Mutation testing for safety logic
- Software safety validation
- Version control for safety artifacts
- Software tool qualification
- Case study: embedded software module
- Template: Software safety case
- Verification vs. validation distinction
- Test strategy for safety functions
- Simulation and HIL testing
- Fault injection techniques
- Coverage metrics beyond code
- Requirements-based testing
- Scenario-based validation
- Field data in validation
- Validation traceability
- Common validation gaps
- Case study: ADAS validation plan
- Template: Validation report structure
- Tool confidence levels (TCL)
- Tool impact classification
- Tool error detection mechanisms
- Tool qualification packages
- Commercial off-the-shelf tools
- In-house tool validation
- Tool integration in CI/CD
- Documentation requirements
- Common tool qualification oversights
- Tool maintenance and updates
- Case study: modeling tool qualification
- Template: Tool qualification checklist
- Change request workflows
- Impact analysis methodology
- Safety change board structure
- Traceability during changes
- Versioning safety documents
- Regression testing scope
- Change approval authority
- Post-change verification
- Common change management failures
- Automating change tracking
- Case study: ECU software update
- Template: Change impact assessment
- Defining supplier safety obligations
- ASIL-aware procurement
- Interface control documents
- Third-party component certification
- Supplier assessment criteria
- Joint safety case development
- Contractual safety clauses
- Managing offshore teams
- Common integration risks
- Audit rights and transparency
- Case study: camera module integration
- Template: Supplier safety agreement
- Safety case structure
- Goal structuring notation (GSN)
- Claim-evidence-reasoning model
- Integrating multiple standards
- Argument completeness
- Addressing assessor concerns
- Common safety case flaws
- Automated safety case tools
- Living safety cases
- Presentation to auditors
- Case study: full vehicle safety case
- Template: Safety case outline
- Safety in over-the-air updates
- AI and machine learning in safety systems
- Cybersecurity and functional safety convergence
- Automated driving safety assurance
- ISO 21448 (SOTIF) integration
- Safety for electric vehicle platforms
- Global regulatory alignment
- Safety in mobility-as-a-service
- Ethical considerations in autonomy
- Workforce development needs
- Case study: safety strategy for L3 system
- Preparing for next-gen standards
How this maps to your situation
- Product development teams scaling safety practices
- Engineers transitioning from mechanical to electronic systems
- Managers overseeing cross-functional safety projects
- Compliance officers preparing for audits
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 40 hours of self-paced learning, designed for professionals balancing delivery responsibilities.
How this compares to the alternatives
Unlike generic ISO 26262 overviews or certification prep courses, this program focuses on implementation depth, real-world templates, and cross-functional leadership, bridging the gap between compliance and product execution.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.