A tailored course, built for your situation
Mastering ISO 26262: Functional Safety for Modern Automotive Systems
A comprehensive, implementation-grade course for professionals advancing safety-critical system design
The situation this course is for
Professionals often struggle to move from theoretical understanding to consistent, auditable application of ISO 26262. Ambiguities in interpretation, shifting team structures, and evolving system architectures create friction in delivering compliant, high-quality products on time.
Who this is for
Engineering leads, systems architects, functional safety managers, and product developers working in automotive or embedded systems who need to apply ISO 26262 rigorously and efficiently.
Who this is not for
This course is not for those seeking introductory overviews or certification exam prep. It assumes foundational knowledge of ISO 26262 and focuses on advanced implementation.
What you walk away with
- Interpret ISO 26262 parts 1, 10 with greater precision in real-world contexts
- Apply safety lifecycle practices across diverse development models
- Develop robust safety cases that satisfy auditors and stakeholders
- Integrate functional safety into system architecture and requirements
- Lead cross-functional teams through ASIL determination and decomposition
The 12 modules (with all 144 chapters)
- Introduction to functional safety principles
- Evolution of ISO 26262 and industry adoption trends
- Safety lifecycle phases and entry criteria
- Hazard identification techniques
- Risk assessment using severity, exposure, and controllability
- ASIL determination process
- ASIL decomposition rationale
- Safety goals and allocation
- Functional safety concept basics
- Role of the safety manager
- Interfaces with systems engineering
- Documentation expectations and audit readiness
- Purpose and scope of HARA
- Defining operational modes and driving conditions
- Identifying hazardous events
- Assessing severity levels
- Estimating exposure probabilities
- Evaluating controllability
- ASIL assignment per hazardous event
- Resolving conflicting ASILs
- Documenting HARA outputs
- Traceability to safety goals
- Common pitfalls and how to avoid them
- HARA review and validation process
- From safety goals to functional safety requirements
- Writing clear, testable requirements
- Allocation of requirements across system elements
- Inheritance and refinement rules
- Handling redundancy and fallback states
- Fault tolerance strategies
- Interface requirements between components
- Safety mechanisms at the functional level
- Requirements management tools
- Bidirectional traceability setup
- Change impact analysis
- Version control for safety requirements
- Deriving technical safety requirements
- Mapping functional to technical requirements
- Architectural design constraints
- Partitioning and isolation strategies
- Diagnostics coverage planning
- Failure detection and response timing
- Redundancy implementation patterns
- Safe state definitions
- Fail-operational vs fail-safe considerations
- Hardware-software interface definition
- Security interactions with safety
- Reviewing technical safety concepts
- System architecture modeling
- Component interface specifications
- Data integrity protections
- Timing and scheduling constraints
- Error handling and recovery design
- Safety-related communication protocols
- Memory protection mechanisms
- Software partitioning strategies
- Integration testing approach
- Verification of integration assumptions
- System-level FMEA integration
- Lessons from real-world integration failures
- Software safety requirements derivation
- Software architectural design principles
- Modularization for safety-critical code
- Coding standards selection and enforcement
- Static analysis and rule checking
- Dynamic testing for fault injection
- Software unit testing strategies
- Software integration testing
- Traceability from code to requirements
- Software safety verification report
- Tool qualification for software development
- Managing software changes in safety context
- Hardware safety requirements derivation
- Architecture metrics: SPFM, LFM, PMHF
- Calculating diagnostic coverage
- Failure mode analysis techniques
- Component selection for ASIL compliance
- Derating and robustness guidelines
- Electrical stress analysis
- Fault tree analysis for hardware
- Accelerated life testing planning
- Hardware validation testing
- Random vs systematic fault mitigation
- Documentation for hardware assessment
- Purpose and scope of V&V in safety lifecycle
- Developing a verification plan
- Validation vs verification distinction
- Test strategy for different ASIL levels
- Fault injection testing methods
- Requirements-based testing
- Coverage metrics: statement, branch, MC/DC
- Simulation and bench testing approaches
- Field testing and beta programs
- Safety case evidence collection
- Reviewing V&V results
- Handling non-conformances
- Change request process for safety items
- Impact assessment methodology
- Reclassification after changes
- Configuration management for safety artifacts
- Version control strategies
- Regression testing scope
- Safety case updates
- Audit trail preservation
- Supplier change coordination
- End-of-life planning for safety systems
- Product recall implications
- Continuous improvement in safety processes
- Tool classification based on impact
- Tool confidence level determination
- Tool qualification process overview
- Developing a tool validation plan
- Verification of tool output correctness
- Commercial off-the-shelf tool assessment
- Custom tool development considerations
- Documentation for tool qualification
- Integration with CI/CD pipelines
- Tool reuse across projects
- Periodic requalification
- Managing toolchain dependencies
- Defining supplier scope and responsibilities
- ASIL flow-down to suppliers
- Supplier selection criteria
- Contractual safety obligations
- Monitoring supplier progress
- Reviewing supplier deliverables
- Onsite audit planning
- Handling supplier non-conformances
- Joint development agreements
- Intellectual property considerations
- Communication protocols for safety issues
- End-to-end traceability across tiers
- Purpose of functional safety audit
- Types of audits: internal, external, certification
- Audit planning and scheduling
- Document readiness checklist
- Interview preparation for team members
- Common findings and how to address them
- Safety case finalization
- Gap analysis prior to audit
- Working with notified bodies
- Post-audit action items
- Maintaining certification status
- Continuous improvement after certification
How this maps to your situation
- You're leading a team implementing ISO 26262 for the first time
- You're responsible for audit readiness and documentation rigor
- You're integrating safety into complex, multi-vendor systems
- You're scaling safety practices across multiple programs
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, 50 hours of self-paced learning, designed to fit around professional commitments.
How this compares to the alternatives
Unlike generic overviews or certification prep courses, this program delivers implementation-grade knowledge with practical templates and real-world decision logic used by leading automotive developers.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.