A tailored course, built for your situation
Advanced Road Vehicle Functional Safety Implementation
Master ISO 26262 at scale with real-world implementation patterns
The situation this course is for
Teams invest heavily in functional safety training, yet struggle when translating ISO 26262 into system architecture, safety cases, and audit-ready documentation. Gaps emerge between theory and deployment, especially in software-intensive and ADAS-enabled vehicles. Misalignment across engineering, compliance, and product teams compounds delays and increases rework.
Who this is for
Engineering leads, systems architects, compliance managers, and product stewards in automotive and mobility technology who need to implement and validate functional safety at scale.
Who this is not for
Those seeking introductory overviews or non-technical summaries of functional safety principles.
What you walk away with
- Apply ISO 26262 Part 9 (operational safety) to real-world product lifecycles
- Structure safety cases that pass third-party audits with minimal remediation
- Integrate functional safety workflows across software, hardware, and systems teams
- Use traceability matrices and evidence packages to reduce compliance cycle time
- Lead safety-driven design reviews with confidence and clarity
The 12 modules (with all 144 chapters)
- Core principles of functional safety in road vehicles
- ASIL determination in practice
- Hazard analysis and risk assessment workflows
- Safety goals and their decomposition
- Functional safety management essentials
- Role of the safety manager
- Organizational roles in safety culture
- Safety lifecycle overview
- Interactions between development phases
- Documentation expectations by phase
- Common misconceptions in early design
- Case study: Safety concept failure analysis
- HARA process overview
- Defining operational domains
- Use case identification for safety
- Identifying potential malfunctions
- Determining severity levels
- Assessing exposure probability
- Estimating controllability
- ASIL assignment rules
- Aggregation of ASILs
- HARA documentation templates
- Common pitfalls in risk assessment
- Case study: Urban ADAS system HARA
- From safety goals to functional requirements
- Safety mechanism categorization
- Fault detection and mitigation strategies
- Redundancy and diversity in design
- Functional partitioning for ASIL compliance
- Safety concept documentation
- Traceability to technical requirements
- Integration with system architecture
- Common safety patterns in braking systems
- Common patterns in steering and powertrain
- Safety communication protocols
- Case study: Safety concept for EV battery system
- Deriving technical safety requirements
- ASIL decomposition and its limits
- Requirements for electrical and electronic components
- Software safety requirements
- Diagnostics and fault handling
- Fail-safe and fail-operational modes
- Response time and latency constraints
- Environmental robustness
- Cybersecurity interactions
- Requirements traceability matrices
- Verification planning
- Case study: Technical safety for ADAS ECU
- Safety-aware system partitioning
- ASIL-oriented component allocation
- Hardware-software interface design
- Memory and processing safety
- Power supply and grounding strategies
- Clock and timing safety
- Mechanical safety integration
- Thermal and environmental resilience
- Design for testability
- Modular safety architecture
- Legacy system integration
- Case study: Central gateway module design
- Software safety requirements
- ASIL-appropriate software design
- Safe programming practices
- Static analysis and code review
- Software unit testing for safety
- Integration testing strategies
- Fault injection testing
- Software safety verification
- Version control and configuration
- Software change management
- Tool qualification for software
- Case study: Embedded controller software
- Hardware safety goals
- Probabilistic metrics (SPFM, LFM, PMHF)
- Failure mode analysis
- Diagnostic coverage calculation
- Safe failure fraction evaluation
- Random hardware failure mitigation
- Systematic hardware design
- Component selection for ASIL
- Derating and stress analysis
- Hardware verification testing
- Fault tree analysis
- Case study: Power supply IC design
- Verification vs validation
- Test strategy development
- Requirements-based testing
- Integration testing levels
- System-level testing
- Safety validation scenarios
- Field operational testing
- Simulation and HIL testing
- Evidence collection
- Audit readiness preparation
- Non-functional testing
- Case study: Brake-by-wire validation
- Safety culture development
- Safety planning documentation
- Project safety monitoring
- Supplier safety management
- Safety audits and assessments
- Change management processes
- Safety work products
- Resource allocation
- Training and competency
- Lessons learned integration
- Cross-functional alignment
- Case study: Tier-1 OEM collaboration
- Overview of certification bodies
- Audit preparation
- Documentation packages
- Safety case structure
- Gap assessment methodology
- Corrective action plans
- Surveillance audits
- Claiming compliance
- Interpreting audit feedback
- Common findings and resolutions
- Post-certification monitoring
- Case study: Full vehicle certification
- Safety in automated driving
- ODD and scenario-based validation
- Machine learning safety considerations
- SOTIF integration
- Software updates and safety
- Safety over-the-air
- Cloud-connected safety systems
- Safety in electric vehicle platforms
- Thermal runaway safety
- Functional safety in retrofit systems
- Safety in shared mobility
- Case study: Autonomous delivery vehicle
- Using the implementation playbook
- Customizing templates
- Adapting to project size
- Scaling safety processes
- Team onboarding strategies
- Integrating with development tools
- Aligning with Agile workflows
- Reporting safety progress
- Managing supplier deliverables
- Preparing for audits
- Continuous improvement
- Sustaining safety culture
How this maps to your situation
- Leading a functional safety program
- Designing safety-critical vehicle systems
- Preparing for ISO 26262 certification
- Managing compliance across supply chain
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 for working professionals.
How this compares to the alternatives
Unlike generic ISO 26262 overviews, this course delivers implementation-grade depth with templates and a custom playbook. It surpasses video-based courses and public workshops by offering structured, text-based mastery with direct application tools.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.