Mastering ISO 26262 for Automotive Functional Safety Engineers
You’re an engineer in one of the most demanding fields in technology, where a single oversight can lead to catastrophic consequences. The pressure is real. Your designs impact lives, liability, and the future of mobility. You’re expected to deliver flawless safety-critical systems-on time, under audit, and in full compliance-yet the ISO 26262 standard feels overwhelming, fragmented, and constantly evolving. Even seasoned professionals struggle to connect the dots between hazard analysis, ASIL decomposition, fault trees, safety plans, and the mountain of documentation required for audit readiness. You might be asking: “Do I really understand this well enough to lead a safety case? Will I stand up in front of an auditor confident, or exposed?” Mastering ISO 26262 for Automotive Functional Safety Engineers is not just another technical overview. It’s the definitive roadmap that transforms your uncertainty into authority. This program is engineered to take you from fragmented awareness to full command of ISO 26262-transforming your ability to design, validate, and certify automotive systems with precision and confidence. You’ll walk away with a board-ready safety architecture for a real-world ECU project, complete with traceable safety requirements, a compliant safety plan, and a documented FMEDA analysis-exactly the kind of portfolio piece that gets you noticed, promoted, or hired into high-trust safety roles. One engineer, Raj M., used this framework to redesign a braking control unit at a Tier 1 supplier and passed his internal audit on the first try-something his team had never achieved before. This isn’t theoretical. It’s how leading OEMs and suppliers expect you to operate. If you’re ready to stop guessing and start leading with certainty, this is your moment. Here’s how this course is structured to help you get there.Course Format & Delivery Details This course is designed for the working automotive engineer-someone who can’t afford to waste time, miss deadlines, or deliver substandard safety documentation. That’s why every element of the learning experience prioritizes efficiency, clarity, and real-world applicability. Self-Paced, Immediate Online Access
The course is fully self-paced, with immediate online access upon finalization of enrollment steps. There are no fixed start dates, no scheduled sessions, and no time commitments. You engage when it fits your schedule-early morning, between meetings, or after shift work-and progress at your own speed. Typical Completion & Real-World Results
Most engineers complete the core curriculum in 28 to 35 hours, dedicating just 1 to 1.5 hours per day. Many report applying critical concepts-such as ASIL assignment workflows and safety goal derivation-on their active projects within the first week. Lifetime Access & Continuous Updates
You receive lifetime access to all course materials, including any future updates to the curriculum as ISO 26262 evolves. No renewals. No extra fees. Every amendment, supplement, or enhancement is delivered automatically at no additional cost, ensuring your knowledge remains current for the lifetime of your career. 24/7 Global Access & Mobile-Friendly Design
The course platform is accessible from any device, anywhere in the world. Whether you’re on a laptop at your desk or reviewing safety checklists on your phone during a site visit, the interface is responsive, fast-loading, and optimized for clarity under pressure. Instructor Support & Expert Guidance
You are not alone. Throughout the course, you’ll have direct access to a senior automotive functional safety assessor with over 18 years of OEM experience. Ask specific questions about your current project, get feedback on safety cases, or request guidance on resolving audit findings-all within a secure, private support channel. Global Certificate of Completion
Upon successful completion, you will earn a Certificate of Completion issued by The Art of Service. This credential is globally recognized, professionally formatted, and verifiable. It carries significant weight with auditors, hiring managers, and safety assessors who know the rigor behind the curriculum. Simple, Transparent Pricing - No Hidden Fees
The total cost of the course is straightforward, with no recurring charges, upsells, or surprise fees. What you see is what you pay. No hidden enrollment costs, no certification add-ons, no maintenance fees. Accepted Payment Methods
We accept major payment methods including Visa, Mastercard, and PayPal. Payments are securely processed with bank-level encryption, ensuring your financial data remains protected at all times. 100% Satisfied or Refunded Guarantee
We eliminate your risk with a no-questions-asked satisfaction guarantee. If you complete the first two modules and find the course does not meet your expectations, you are entitled to a full refund. This is not just a promise-it’s our commitment to delivering real value. After Enrollment: Confirmation & Access
Once you enroll, you’ll receive a confirmation email acknowledging your registration. Your course access credentials will be sent separately once your enrollment is fully processed and the course materials are prepared for you-ensuring a smooth, secure, and professional onboarding experience. Will This Work for Me?
We understand the skepticism. You’ve seen content that overpromises and underdelivers. But this course was built by functional safety engineers, for functional safety engineers-based on real audit logs, OEM templates, and thousands of hours of compliance reviews. It works if you’re a software engineer transitioning into safety-critical roles. It works if you’re a systems engineer at a startup building ADAS features without a mature safety process. It works if you’re a senior assessor preparing for ISO 26262 certification audits. The curriculum is role-adaptive, scalable, and built on proven industry practices. This works even if you’ve never written a safety plan or conducted a hazard analysis before. The step-by-step structure, annotated templates, and real project walkthroughs are designed to bring engineers of all backgrounds up to audit-ready proficiency.
Extensive and Detailed Course Curriculum
Module 1: Foundations of Automotive Functional Safety - Introduction to Functional Safety in the Automotive Industry
- Evolution of ISO 26262 from IEC 61508
- Key Objectives and Scope of ISO 26262
- Differentiating Functional Safety from General Safety
- Understanding the Role of the Safety Lifecycle
- Overview of the V-Model in Safety-Critical Development
- Core Concepts: Risk, Hazard, and Harm
- Defining Safety Goals and Functional Safety Requirements
- Introduction to ASIL: Automotive Safety Integrity Levels
- The Importance of Evidence-Based Safety Assurance
- Stakeholder Responsibilities in Functional Safety
- Integration of Functional Safety into Project Management
- Common Misconceptions About ISO 26262 Compliance
- Understanding Normative vs. Informative Parts of the Standard
- Overview of ISO 26262 Part 1 to Part 12
Module 2: Hazard Analysis and Risk Assessment (HARA) - Initiating the HARA Process
- Identifying Operational Scenarios and Use Cases
- Determining Potential Hazards from System Behavior
- Classifying Severity Levels (S0 to S3)
- Evaluating Exposure Frequency (E0 to E4)
- Assessing Controllability (C0 to C3)
- Calculating ASIL from S, E, and C Parameters
- Resolving Conflicting ASIL Assignments
- Documenting Justifications for ASIL Selection
- Handling Redundant or Overlapping Hazards
- Using HARA Templates for Consistency
- Role of HARA in Safety Goal Definition
- Integrating Driver Behavior Models into HARA
- Incorporating Environmental and Road Conditions
- Validating HARA Results with Cross-Functional Teams
Module 3: Functional Safety Concepts - Deriving Functional Safety Requirements from Safety Goals
- Differentiating Between Functional and Technical Safety Requirements
- Allocating Safety Requirements to System Elements
- Handling Distributed Safety Functions Across ECUs
- Using Safety Mechanisms to Mitigate Risks
- Introduction to Redundancy, Diagnostics, and Voting Logic
- Creating a Functional Safety Concept Document
- Managing Interfaces in Safety-Critical Systems
- Treating Common Cause Failures in Concept Design
- Incorporating Fail-Operational and Fail-Safe States
- Defining Safe States and Fault Reaction Strategies
- Integrating Diagnostic Coverage Requirements
- Handling Degraded Modes of Operation
- Aligning Safety Concepts with System Architecture
- Ensuring Traceability from HARA to Safety Functions
Module 4: Technical Safety Requirements and Design - Refining Functional Safety Requirements into Technical Specifications
- Detailed Allocation of Requirements to Hardware and Software
- Designing for ASIL Decomposition and Independence
- Hardware Safety Metrics: SPFM, LFM, PMHF
- Failure Modes and Effects Analysis (FMEA) for Safety
- Failure Modes, Effects, and Diagnostic Analysis (FMEDA)
- Selecting Appropriate Diagnostic Methods and Coverage
- Designing Diagnostic Routines and Self-Tests
- Handling Latent Faults and Periodic Checks
- Architectural Design for ASIL Compliance
- Incorporating Watchdog Timers and Memory Checks
- Using Lockstep Cores and Comparator Circuits
- Integrating Communication Safety Protocols (e.g., CAN FD with CRC)
- Safety-Oriented Partitioning and Isolation Techniques
- Tools and Methods for Design Validation
Module 5: Software Development for Functional Safety - Software Safety Requirements Specification
- Software Architecture Design for ASIL Compliance
- Task Scheduling and Priority Management in Safety Systems
- Memory Protection and Stack Overflow Prevention
- Safe Error Handling and Exception Management
- Static and Dynamic Code Analysis Tools
- Programming Language Selection: C, C++, Ada, and MISRA Guidelines
- Adhering to MISRA C:2012 Directives for Safety
- Code Metrics: Cyclomatic Complexity, Coupling, Cohesion
- Unit Testing and Integration Testing Strategies
- Test Coverage Requirements: MCDC, Statement, Branch
- Tool Qualification for Software Testing
- Configuration Management and Version Control Best Practices
- Change Impact Analysis in Safety Software
- Software Safety Case Development
Module 6: Hardware Development and Evaluation - Hardware Safety Requirements Specification
- Component Selection Based on ASIL Suitability
- Random Hardware Failure Analysis (ISO 26262-5)
- Calculating Single Point Fault Metrics (SPFM)
- Calculating Latent Fault Metrics (LFM)
- Calculating Probabilistic Metric for Hardware Failures (PMHF)
- Selecting Safe Failure Fraction Targets
- Fault Injection Testing for Hardware Validation
- Accelerated Life Testing and Environmental Stress Screening
- Safe Chip Design Principles for Microcontrollers
- Power Supply and Clock Monitoring Circuits
- Signal Integrity and EMI Protection for Safety Signals
- Evaluating Supplier Data for Safety Components
- Hardware-Software Interface (HSI) Specification
- Hardware Safety Case Compilation and Review
Module 7: Safety Validation and Verification - Developing a Safety Verification Plan
- Test Case Design for Functional Safety Requirements
- Integration Testing of Safety Functions
- End-to-End Validation of Safety Mechanisms
- Performing Fault Injection Testing
- Simulating Failure Modes in Real-Time Systems
- Correlating Test Results with Hazard Scenarios
- Reviewing Traceability Matrices: HARA to Requirements to Tests
- Conducting Safety Audits and Technical Reviews
- Using Checklists for Compliance Verification
- Handling Deviations and Non-Conformances
- Validating Diagnostic Coverage Through Testing
- Tools for Automated Test Execution and Coverage Analysis
- Documenting Validation Evidence for Certification
- Preparing for Third-Party Audits
Module 8: Safety Management and Organizational Processes - Establishing a Functional Safety Management System
- Defining Safety Culture and Leadership Accountability
- Safety Planning and Safety Plan Development
- Resource Allocation and Competency Requirements
- Defining Safety Lifecycle Phases and Milestones
- Conducting Gate Reviews and Phase Transitions
- Change Management in Safety-Critical Projects
- Risk Management and Escalation Procedures
- Interfaces with Supplier and Subcontractor Safety Processes
- Safety File Compilation and Maintenance
- Configuration Management for Safety Artifacts
- Internal Audits and Process Assessments
- Handling Safety Incidents and Field Returns
- Continuous Improvement of Safety Processes
- Integration with ASPICE and Automotive Cybersecurity
Module 9: Supplier Management and Collaboration - Defining Safety Requirements for Suppliers
- Supplier Assessment and Qualification Process
- Tailoring Safety Requirements by ASIL and Scope
- Managing Safety Item Development Agreements
- Reviewing Supplier Safety Artifacts and Evidence
- Conducting Supplier Audits and Technical Evaluations
- Handling Distributed Development Across Geographies
- Ensuring Traceability in Supplier-Customer Handoffs
- Managing Safety in Off-the-Shelf Components
- Using Safety Element out of Context (SEooC) Approach
- Documenting Assumptions and Integration Constraints
- Validating Supplier Claims and Test Results
- Resolving Conflicts in Safety Responsibility
- Tools for Collaborative Safety Document Management
- Lessons Learned from Supplier-Related Safety Incidents
Module 10: Special Topics in ISO 26262 - Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
Module 1: Foundations of Automotive Functional Safety - Introduction to Functional Safety in the Automotive Industry
- Evolution of ISO 26262 from IEC 61508
- Key Objectives and Scope of ISO 26262
- Differentiating Functional Safety from General Safety
- Understanding the Role of the Safety Lifecycle
- Overview of the V-Model in Safety-Critical Development
- Core Concepts: Risk, Hazard, and Harm
- Defining Safety Goals and Functional Safety Requirements
- Introduction to ASIL: Automotive Safety Integrity Levels
- The Importance of Evidence-Based Safety Assurance
- Stakeholder Responsibilities in Functional Safety
- Integration of Functional Safety into Project Management
- Common Misconceptions About ISO 26262 Compliance
- Understanding Normative vs. Informative Parts of the Standard
- Overview of ISO 26262 Part 1 to Part 12
Module 2: Hazard Analysis and Risk Assessment (HARA) - Initiating the HARA Process
- Identifying Operational Scenarios and Use Cases
- Determining Potential Hazards from System Behavior
- Classifying Severity Levels (S0 to S3)
- Evaluating Exposure Frequency (E0 to E4)
- Assessing Controllability (C0 to C3)
- Calculating ASIL from S, E, and C Parameters
- Resolving Conflicting ASIL Assignments
- Documenting Justifications for ASIL Selection
- Handling Redundant or Overlapping Hazards
- Using HARA Templates for Consistency
- Role of HARA in Safety Goal Definition
- Integrating Driver Behavior Models into HARA
- Incorporating Environmental and Road Conditions
- Validating HARA Results with Cross-Functional Teams
Module 3: Functional Safety Concepts - Deriving Functional Safety Requirements from Safety Goals
- Differentiating Between Functional and Technical Safety Requirements
- Allocating Safety Requirements to System Elements
- Handling Distributed Safety Functions Across ECUs
- Using Safety Mechanisms to Mitigate Risks
- Introduction to Redundancy, Diagnostics, and Voting Logic
- Creating a Functional Safety Concept Document
- Managing Interfaces in Safety-Critical Systems
- Treating Common Cause Failures in Concept Design
- Incorporating Fail-Operational and Fail-Safe States
- Defining Safe States and Fault Reaction Strategies
- Integrating Diagnostic Coverage Requirements
- Handling Degraded Modes of Operation
- Aligning Safety Concepts with System Architecture
- Ensuring Traceability from HARA to Safety Functions
Module 4: Technical Safety Requirements and Design - Refining Functional Safety Requirements into Technical Specifications
- Detailed Allocation of Requirements to Hardware and Software
- Designing for ASIL Decomposition and Independence
- Hardware Safety Metrics: SPFM, LFM, PMHF
- Failure Modes and Effects Analysis (FMEA) for Safety
- Failure Modes, Effects, and Diagnostic Analysis (FMEDA)
- Selecting Appropriate Diagnostic Methods and Coverage
- Designing Diagnostic Routines and Self-Tests
- Handling Latent Faults and Periodic Checks
- Architectural Design for ASIL Compliance
- Incorporating Watchdog Timers and Memory Checks
- Using Lockstep Cores and Comparator Circuits
- Integrating Communication Safety Protocols (e.g., CAN FD with CRC)
- Safety-Oriented Partitioning and Isolation Techniques
- Tools and Methods for Design Validation
Module 5: Software Development for Functional Safety - Software Safety Requirements Specification
- Software Architecture Design for ASIL Compliance
- Task Scheduling and Priority Management in Safety Systems
- Memory Protection and Stack Overflow Prevention
- Safe Error Handling and Exception Management
- Static and Dynamic Code Analysis Tools
- Programming Language Selection: C, C++, Ada, and MISRA Guidelines
- Adhering to MISRA C:2012 Directives for Safety
- Code Metrics: Cyclomatic Complexity, Coupling, Cohesion
- Unit Testing and Integration Testing Strategies
- Test Coverage Requirements: MCDC, Statement, Branch
- Tool Qualification for Software Testing
- Configuration Management and Version Control Best Practices
- Change Impact Analysis in Safety Software
- Software Safety Case Development
Module 6: Hardware Development and Evaluation - Hardware Safety Requirements Specification
- Component Selection Based on ASIL Suitability
- Random Hardware Failure Analysis (ISO 26262-5)
- Calculating Single Point Fault Metrics (SPFM)
- Calculating Latent Fault Metrics (LFM)
- Calculating Probabilistic Metric for Hardware Failures (PMHF)
- Selecting Safe Failure Fraction Targets
- Fault Injection Testing for Hardware Validation
- Accelerated Life Testing and Environmental Stress Screening
- Safe Chip Design Principles for Microcontrollers
- Power Supply and Clock Monitoring Circuits
- Signal Integrity and EMI Protection for Safety Signals
- Evaluating Supplier Data for Safety Components
- Hardware-Software Interface (HSI) Specification
- Hardware Safety Case Compilation and Review
Module 7: Safety Validation and Verification - Developing a Safety Verification Plan
- Test Case Design for Functional Safety Requirements
- Integration Testing of Safety Functions
- End-to-End Validation of Safety Mechanisms
- Performing Fault Injection Testing
- Simulating Failure Modes in Real-Time Systems
- Correlating Test Results with Hazard Scenarios
- Reviewing Traceability Matrices: HARA to Requirements to Tests
- Conducting Safety Audits and Technical Reviews
- Using Checklists for Compliance Verification
- Handling Deviations and Non-Conformances
- Validating Diagnostic Coverage Through Testing
- Tools for Automated Test Execution and Coverage Analysis
- Documenting Validation Evidence for Certification
- Preparing for Third-Party Audits
Module 8: Safety Management and Organizational Processes - Establishing a Functional Safety Management System
- Defining Safety Culture and Leadership Accountability
- Safety Planning and Safety Plan Development
- Resource Allocation and Competency Requirements
- Defining Safety Lifecycle Phases and Milestones
- Conducting Gate Reviews and Phase Transitions
- Change Management in Safety-Critical Projects
- Risk Management and Escalation Procedures
- Interfaces with Supplier and Subcontractor Safety Processes
- Safety File Compilation and Maintenance
- Configuration Management for Safety Artifacts
- Internal Audits and Process Assessments
- Handling Safety Incidents and Field Returns
- Continuous Improvement of Safety Processes
- Integration with ASPICE and Automotive Cybersecurity
Module 9: Supplier Management and Collaboration - Defining Safety Requirements for Suppliers
- Supplier Assessment and Qualification Process
- Tailoring Safety Requirements by ASIL and Scope
- Managing Safety Item Development Agreements
- Reviewing Supplier Safety Artifacts and Evidence
- Conducting Supplier Audits and Technical Evaluations
- Handling Distributed Development Across Geographies
- Ensuring Traceability in Supplier-Customer Handoffs
- Managing Safety in Off-the-Shelf Components
- Using Safety Element out of Context (SEooC) Approach
- Documenting Assumptions and Integration Constraints
- Validating Supplier Claims and Test Results
- Resolving Conflicts in Safety Responsibility
- Tools for Collaborative Safety Document Management
- Lessons Learned from Supplier-Related Safety Incidents
Module 10: Special Topics in ISO 26262 - Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
- Initiating the HARA Process
- Identifying Operational Scenarios and Use Cases
- Determining Potential Hazards from System Behavior
- Classifying Severity Levels (S0 to S3)
- Evaluating Exposure Frequency (E0 to E4)
- Assessing Controllability (C0 to C3)
- Calculating ASIL from S, E, and C Parameters
- Resolving Conflicting ASIL Assignments
- Documenting Justifications for ASIL Selection
- Handling Redundant or Overlapping Hazards
- Using HARA Templates for Consistency
- Role of HARA in Safety Goal Definition
- Integrating Driver Behavior Models into HARA
- Incorporating Environmental and Road Conditions
- Validating HARA Results with Cross-Functional Teams
Module 3: Functional Safety Concepts - Deriving Functional Safety Requirements from Safety Goals
- Differentiating Between Functional and Technical Safety Requirements
- Allocating Safety Requirements to System Elements
- Handling Distributed Safety Functions Across ECUs
- Using Safety Mechanisms to Mitigate Risks
- Introduction to Redundancy, Diagnostics, and Voting Logic
- Creating a Functional Safety Concept Document
- Managing Interfaces in Safety-Critical Systems
- Treating Common Cause Failures in Concept Design
- Incorporating Fail-Operational and Fail-Safe States
- Defining Safe States and Fault Reaction Strategies
- Integrating Diagnostic Coverage Requirements
- Handling Degraded Modes of Operation
- Aligning Safety Concepts with System Architecture
- Ensuring Traceability from HARA to Safety Functions
Module 4: Technical Safety Requirements and Design - Refining Functional Safety Requirements into Technical Specifications
- Detailed Allocation of Requirements to Hardware and Software
- Designing for ASIL Decomposition and Independence
- Hardware Safety Metrics: SPFM, LFM, PMHF
- Failure Modes and Effects Analysis (FMEA) for Safety
- Failure Modes, Effects, and Diagnostic Analysis (FMEDA)
- Selecting Appropriate Diagnostic Methods and Coverage
- Designing Diagnostic Routines and Self-Tests
- Handling Latent Faults and Periodic Checks
- Architectural Design for ASIL Compliance
- Incorporating Watchdog Timers and Memory Checks
- Using Lockstep Cores and Comparator Circuits
- Integrating Communication Safety Protocols (e.g., CAN FD with CRC)
- Safety-Oriented Partitioning and Isolation Techniques
- Tools and Methods for Design Validation
Module 5: Software Development for Functional Safety - Software Safety Requirements Specification
- Software Architecture Design for ASIL Compliance
- Task Scheduling and Priority Management in Safety Systems
- Memory Protection and Stack Overflow Prevention
- Safe Error Handling and Exception Management
- Static and Dynamic Code Analysis Tools
- Programming Language Selection: C, C++, Ada, and MISRA Guidelines
- Adhering to MISRA C:2012 Directives for Safety
- Code Metrics: Cyclomatic Complexity, Coupling, Cohesion
- Unit Testing and Integration Testing Strategies
- Test Coverage Requirements: MCDC, Statement, Branch
- Tool Qualification for Software Testing
- Configuration Management and Version Control Best Practices
- Change Impact Analysis in Safety Software
- Software Safety Case Development
Module 6: Hardware Development and Evaluation - Hardware Safety Requirements Specification
- Component Selection Based on ASIL Suitability
- Random Hardware Failure Analysis (ISO 26262-5)
- Calculating Single Point Fault Metrics (SPFM)
- Calculating Latent Fault Metrics (LFM)
- Calculating Probabilistic Metric for Hardware Failures (PMHF)
- Selecting Safe Failure Fraction Targets
- Fault Injection Testing for Hardware Validation
- Accelerated Life Testing and Environmental Stress Screening
- Safe Chip Design Principles for Microcontrollers
- Power Supply and Clock Monitoring Circuits
- Signal Integrity and EMI Protection for Safety Signals
- Evaluating Supplier Data for Safety Components
- Hardware-Software Interface (HSI) Specification
- Hardware Safety Case Compilation and Review
Module 7: Safety Validation and Verification - Developing a Safety Verification Plan
- Test Case Design for Functional Safety Requirements
- Integration Testing of Safety Functions
- End-to-End Validation of Safety Mechanisms
- Performing Fault Injection Testing
- Simulating Failure Modes in Real-Time Systems
- Correlating Test Results with Hazard Scenarios
- Reviewing Traceability Matrices: HARA to Requirements to Tests
- Conducting Safety Audits and Technical Reviews
- Using Checklists for Compliance Verification
- Handling Deviations and Non-Conformances
- Validating Diagnostic Coverage Through Testing
- Tools for Automated Test Execution and Coverage Analysis
- Documenting Validation Evidence for Certification
- Preparing for Third-Party Audits
Module 8: Safety Management and Organizational Processes - Establishing a Functional Safety Management System
- Defining Safety Culture and Leadership Accountability
- Safety Planning and Safety Plan Development
- Resource Allocation and Competency Requirements
- Defining Safety Lifecycle Phases and Milestones
- Conducting Gate Reviews and Phase Transitions
- Change Management in Safety-Critical Projects
- Risk Management and Escalation Procedures
- Interfaces with Supplier and Subcontractor Safety Processes
- Safety File Compilation and Maintenance
- Configuration Management for Safety Artifacts
- Internal Audits and Process Assessments
- Handling Safety Incidents and Field Returns
- Continuous Improvement of Safety Processes
- Integration with ASPICE and Automotive Cybersecurity
Module 9: Supplier Management and Collaboration - Defining Safety Requirements for Suppliers
- Supplier Assessment and Qualification Process
- Tailoring Safety Requirements by ASIL and Scope
- Managing Safety Item Development Agreements
- Reviewing Supplier Safety Artifacts and Evidence
- Conducting Supplier Audits and Technical Evaluations
- Handling Distributed Development Across Geographies
- Ensuring Traceability in Supplier-Customer Handoffs
- Managing Safety in Off-the-Shelf Components
- Using Safety Element out of Context (SEooC) Approach
- Documenting Assumptions and Integration Constraints
- Validating Supplier Claims and Test Results
- Resolving Conflicts in Safety Responsibility
- Tools for Collaborative Safety Document Management
- Lessons Learned from Supplier-Related Safety Incidents
Module 10: Special Topics in ISO 26262 - Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
- Refining Functional Safety Requirements into Technical Specifications
- Detailed Allocation of Requirements to Hardware and Software
- Designing for ASIL Decomposition and Independence
- Hardware Safety Metrics: SPFM, LFM, PMHF
- Failure Modes and Effects Analysis (FMEA) for Safety
- Failure Modes, Effects, and Diagnostic Analysis (FMEDA)
- Selecting Appropriate Diagnostic Methods and Coverage
- Designing Diagnostic Routines and Self-Tests
- Handling Latent Faults and Periodic Checks
- Architectural Design for ASIL Compliance
- Incorporating Watchdog Timers and Memory Checks
- Using Lockstep Cores and Comparator Circuits
- Integrating Communication Safety Protocols (e.g., CAN FD with CRC)
- Safety-Oriented Partitioning and Isolation Techniques
- Tools and Methods for Design Validation
Module 5: Software Development for Functional Safety - Software Safety Requirements Specification
- Software Architecture Design for ASIL Compliance
- Task Scheduling and Priority Management in Safety Systems
- Memory Protection and Stack Overflow Prevention
- Safe Error Handling and Exception Management
- Static and Dynamic Code Analysis Tools
- Programming Language Selection: C, C++, Ada, and MISRA Guidelines
- Adhering to MISRA C:2012 Directives for Safety
- Code Metrics: Cyclomatic Complexity, Coupling, Cohesion
- Unit Testing and Integration Testing Strategies
- Test Coverage Requirements: MCDC, Statement, Branch
- Tool Qualification for Software Testing
- Configuration Management and Version Control Best Practices
- Change Impact Analysis in Safety Software
- Software Safety Case Development
Module 6: Hardware Development and Evaluation - Hardware Safety Requirements Specification
- Component Selection Based on ASIL Suitability
- Random Hardware Failure Analysis (ISO 26262-5)
- Calculating Single Point Fault Metrics (SPFM)
- Calculating Latent Fault Metrics (LFM)
- Calculating Probabilistic Metric for Hardware Failures (PMHF)
- Selecting Safe Failure Fraction Targets
- Fault Injection Testing for Hardware Validation
- Accelerated Life Testing and Environmental Stress Screening
- Safe Chip Design Principles for Microcontrollers
- Power Supply and Clock Monitoring Circuits
- Signal Integrity and EMI Protection for Safety Signals
- Evaluating Supplier Data for Safety Components
- Hardware-Software Interface (HSI) Specification
- Hardware Safety Case Compilation and Review
Module 7: Safety Validation and Verification - Developing a Safety Verification Plan
- Test Case Design for Functional Safety Requirements
- Integration Testing of Safety Functions
- End-to-End Validation of Safety Mechanisms
- Performing Fault Injection Testing
- Simulating Failure Modes in Real-Time Systems
- Correlating Test Results with Hazard Scenarios
- Reviewing Traceability Matrices: HARA to Requirements to Tests
- Conducting Safety Audits and Technical Reviews
- Using Checklists for Compliance Verification
- Handling Deviations and Non-Conformances
- Validating Diagnostic Coverage Through Testing
- Tools for Automated Test Execution and Coverage Analysis
- Documenting Validation Evidence for Certification
- Preparing for Third-Party Audits
Module 8: Safety Management and Organizational Processes - Establishing a Functional Safety Management System
- Defining Safety Culture and Leadership Accountability
- Safety Planning and Safety Plan Development
- Resource Allocation and Competency Requirements
- Defining Safety Lifecycle Phases and Milestones
- Conducting Gate Reviews and Phase Transitions
- Change Management in Safety-Critical Projects
- Risk Management and Escalation Procedures
- Interfaces with Supplier and Subcontractor Safety Processes
- Safety File Compilation and Maintenance
- Configuration Management for Safety Artifacts
- Internal Audits and Process Assessments
- Handling Safety Incidents and Field Returns
- Continuous Improvement of Safety Processes
- Integration with ASPICE and Automotive Cybersecurity
Module 9: Supplier Management and Collaboration - Defining Safety Requirements for Suppliers
- Supplier Assessment and Qualification Process
- Tailoring Safety Requirements by ASIL and Scope
- Managing Safety Item Development Agreements
- Reviewing Supplier Safety Artifacts and Evidence
- Conducting Supplier Audits and Technical Evaluations
- Handling Distributed Development Across Geographies
- Ensuring Traceability in Supplier-Customer Handoffs
- Managing Safety in Off-the-Shelf Components
- Using Safety Element out of Context (SEooC) Approach
- Documenting Assumptions and Integration Constraints
- Validating Supplier Claims and Test Results
- Resolving Conflicts in Safety Responsibility
- Tools for Collaborative Safety Document Management
- Lessons Learned from Supplier-Related Safety Incidents
Module 10: Special Topics in ISO 26262 - Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
- Hardware Safety Requirements Specification
- Component Selection Based on ASIL Suitability
- Random Hardware Failure Analysis (ISO 26262-5)
- Calculating Single Point Fault Metrics (SPFM)
- Calculating Latent Fault Metrics (LFM)
- Calculating Probabilistic Metric for Hardware Failures (PMHF)
- Selecting Safe Failure Fraction Targets
- Fault Injection Testing for Hardware Validation
- Accelerated Life Testing and Environmental Stress Screening
- Safe Chip Design Principles for Microcontrollers
- Power Supply and Clock Monitoring Circuits
- Signal Integrity and EMI Protection for Safety Signals
- Evaluating Supplier Data for Safety Components
- Hardware-Software Interface (HSI) Specification
- Hardware Safety Case Compilation and Review
Module 7: Safety Validation and Verification - Developing a Safety Verification Plan
- Test Case Design for Functional Safety Requirements
- Integration Testing of Safety Functions
- End-to-End Validation of Safety Mechanisms
- Performing Fault Injection Testing
- Simulating Failure Modes in Real-Time Systems
- Correlating Test Results with Hazard Scenarios
- Reviewing Traceability Matrices: HARA to Requirements to Tests
- Conducting Safety Audits and Technical Reviews
- Using Checklists for Compliance Verification
- Handling Deviations and Non-Conformances
- Validating Diagnostic Coverage Through Testing
- Tools for Automated Test Execution and Coverage Analysis
- Documenting Validation Evidence for Certification
- Preparing for Third-Party Audits
Module 8: Safety Management and Organizational Processes - Establishing a Functional Safety Management System
- Defining Safety Culture and Leadership Accountability
- Safety Planning and Safety Plan Development
- Resource Allocation and Competency Requirements
- Defining Safety Lifecycle Phases and Milestones
- Conducting Gate Reviews and Phase Transitions
- Change Management in Safety-Critical Projects
- Risk Management and Escalation Procedures
- Interfaces with Supplier and Subcontractor Safety Processes
- Safety File Compilation and Maintenance
- Configuration Management for Safety Artifacts
- Internal Audits and Process Assessments
- Handling Safety Incidents and Field Returns
- Continuous Improvement of Safety Processes
- Integration with ASPICE and Automotive Cybersecurity
Module 9: Supplier Management and Collaboration - Defining Safety Requirements for Suppliers
- Supplier Assessment and Qualification Process
- Tailoring Safety Requirements by ASIL and Scope
- Managing Safety Item Development Agreements
- Reviewing Supplier Safety Artifacts and Evidence
- Conducting Supplier Audits and Technical Evaluations
- Handling Distributed Development Across Geographies
- Ensuring Traceability in Supplier-Customer Handoffs
- Managing Safety in Off-the-Shelf Components
- Using Safety Element out of Context (SEooC) Approach
- Documenting Assumptions and Integration Constraints
- Validating Supplier Claims and Test Results
- Resolving Conflicts in Safety Responsibility
- Tools for Collaborative Safety Document Management
- Lessons Learned from Supplier-Related Safety Incidents
Module 10: Special Topics in ISO 26262 - Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
- Establishing a Functional Safety Management System
- Defining Safety Culture and Leadership Accountability
- Safety Planning and Safety Plan Development
- Resource Allocation and Competency Requirements
- Defining Safety Lifecycle Phases and Milestones
- Conducting Gate Reviews and Phase Transitions
- Change Management in Safety-Critical Projects
- Risk Management and Escalation Procedures
- Interfaces with Supplier and Subcontractor Safety Processes
- Safety File Compilation and Maintenance
- Configuration Management for Safety Artifacts
- Internal Audits and Process Assessments
- Handling Safety Incidents and Field Returns
- Continuous Improvement of Safety Processes
- Integration with ASPICE and Automotive Cybersecurity
Module 9: Supplier Management and Collaboration - Defining Safety Requirements for Suppliers
- Supplier Assessment and Qualification Process
- Tailoring Safety Requirements by ASIL and Scope
- Managing Safety Item Development Agreements
- Reviewing Supplier Safety Artifacts and Evidence
- Conducting Supplier Audits and Technical Evaluations
- Handling Distributed Development Across Geographies
- Ensuring Traceability in Supplier-Customer Handoffs
- Managing Safety in Off-the-Shelf Components
- Using Safety Element out of Context (SEooC) Approach
- Documenting Assumptions and Integration Constraints
- Validating Supplier Claims and Test Results
- Resolving Conflicts in Safety Responsibility
- Tools for Collaborative Safety Document Management
- Lessons Learned from Supplier-Related Safety Incidents
Module 10: Special Topics in ISO 26262 - Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
- Safety for Electric Vehicles (EVs) and Battery Management Systems
- Functional Safety in ADAS: AEB, ACC, Lane Keeping
- Safety Challenges in Automated Driving (SAE Levels 3–5)
- Safety for OTA Updates and Reconfiguration
- Interactions Between Functional Safety and Cybersecurity
- Handling Mixed ASIL Systems and ASIL Decomposition
- Safety for Touchscreen Interfaces and Driver Distraction
- Functional Safety in Vehicle-to-Everything (V2X) Systems
- Safety Considerations for Software-Defined Vehicles
- AI and Machine Learning in Safety-Critical Functions
- Outsourcing Safety-Critical Development to Cloud Platforms
- Use of Simulation and Digital Twins in Validation
- Legacy System Integration and Migration Strategies
- Handling Variants and Product Line Engineering
- Global Regulatory Landscape and Harmonization
Module 11: Certification and Audit Readiness - Preparing for ISO 26262 Certification Audits
- Understanding the Role of Notified Bodies and Assessment Organizations
- Compiling the Functional Safety Assessment (FUSA) Report
- Structuring the Safety Case for Presentation
- Organizing the Safety File for Audit Access
- Conducting Internal Mock Audits
- Responding to Auditor Findings and Non-Conformances
- Demonstrating Process Compliance with ISO 26262-8
- Handling Legacy Systems in Certification Projects
- Documenting Compliance for All 12 Parts of ISO 26262
- Presenting Evidence of Technical and Process Compliance
- Benchmarks for a Successful Certification Outcome
- Managing Timeline and Resource Demands During Audit
- Post-Certification Surveillance and Maintenance
- Transitioning from Development to Production Safety Monitoring
Module 12: Capstone Project and Certification - Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources
- Initiating a Real-World Safety Project: ECU for Brake Control
- Conducting Full HARA for the Braking System
- Assigning ASIL Ratings with Justification
- Defining Safety Goals and Functional Safety Requirements
- Developing a Functional Safety Concept
- Creating Technical Safety Requirements for Hardware and Software
- Designing Fault Detection and Diagnostic Mechanisms
- Performing FMEDA for the Microcontroller and Sensors
- Calculating SPFM, LFM, and PMHF Metrics
- Developing a Safety Plan Aligned with ISO 26262-8
- Writing a Safety Case with Complete Traceability
- Integrating Supplier Components Using SEooC Methodology
- Simulating Fault Scenarios and Validating Responses
- Documenting Verification Results and Test Coverage
- Compiling the Final Safety File and Submitting for Review
- Receiving Expert Feedback on Your Complete Safety Package
- Finalizing the Project for Certificate Eligibility
- Earning Your Certificate of Completion from The Art of Service
- Adding the Credential to Your LinkedIn and Resume
- Accessing Lifetime Updates and Alumni Resources