COURSE FORMAT & DELIVERY DETAILS Learn On Your Terms With Zero Risk, Maximum Reward
Enroll in Mastering ISO 26262 Automotive Safety Certification with complete confidence. This is not a generic course. It’s a precision-engineered learning system designed for professionals who demand clarity, credibility, and career advancement without compromise. Self-Paced Learning With Immediate Online Access
The moment you enroll, you gain full access to a meticulously structured curriculum built for rapid comprehension and real-world impact. This is a self-paced program, allowing you to move faster when you’re ready, or pause and revisit concepts when you need to. There are no rigid schedules, no forced deadlines-just a flexible, intelligent pathway to mastery that adapts to your life. On-Demand Access, Zero Time Commitments
You choose when and where you learn. No live sessions, no time zone conflicts. Whether you're studying during commutes, late at night, or between design reviews, the course materials are available whenever you are. The entire experience is hosted on a secure, responsive platform accessible from any device. Designed for Rapid Results, Built for Long-Term Mastery
Most learners report achieving tangible clarity and confidence in ISO 26262 concepts within just 14 days. Full completion typically takes between 3 to 6 weeks for professionals dedicating focused study time. But the real value isn't in speed-it's in depth. This course is engineered to transform you from uncertain to authoritative, whether you're just starting out or seeking to fill critical knowledge gaps. Lifetime Access With All Future Updates Included
Technology evolves. Standards evolve. Your access evolves with them. Once enrolled, you receive lifetime access to the course, including every future update at no additional cost. As ISO 26262 guidance materials are refined or new interpretations emerge, your learning materials will reflect those changes-ensuring your knowledge remains current and credible for years to come. 24/7 Global Access, Fully Mobile-Friendly
Access your course anytime, from anywhere in the world. Whether you're at your desk, on a factory floor, or traveling internationally, the entire curriculum is optimized for seamless performance across desktops, tablets, and smartphones. The interface is clean, fast-loading, and requires no downloads or installations. Direct Instructor Support & Expert Guidance
You are not learning in isolation. Each module includes structured pathways for instructor engagement. You'll have access to subject matter experts who are practicing functional safety engineers with deep ISO 26262 implementation experience. Ask specific questions, review complex hazard analysis scenarios, or validate your interpretation of ASIL decomposition rules-you’ll get clear, timely, and professional guidance to ensure mastery. Certificate of Completion Issued by The Art of Service
Upon finishing the course, you’ll earn a Certificate of Completion issued by The Art of Service, a globally recognized authority in professional certification and technical training. This isn’t a participation badge-it’s verification that you’ve mastered a rigorous, industry-aligned curriculum. This certificate is shareable, verifiable, and respected by employers across automotive engineering, embedded systems, and safety-critical development sectors. Simple, Transparent Pricing-No Hidden Fees
What you see is what you get. There are no surprise charges, no recurring fees, and no upsells. The price covers full access to all course materials, expert support, progress tracking tools, and your official certificate. One payment, full value. Secure Payment via Visa, Mastercard, and PayPal
We accept all major payment methods, including Visa, Mastercard, and PayPal. Our payment gateway is fully encrypted and compliant with international security standards, ensuring your transaction is fast, safe, and private. 100% Money-Back Guarantee: Satisfied or Refunded
We stand behind the quality and effectiveness of this course with an unconditional, no-risk guarantee. If you're not completely satisfied with your learning experience, simply request a refund within 30 days of enrollment. No questions, no hassle. This is our promise to you: invest with confidence, learn with certainty, and advance with authority. What Happens After Enrollment?
After completing your registration, you’ll receive a confirmation email acknowledging your enrollment. Shortly afterward, a separate email will provide your detailed access instructions and login credentials, delivered once your course materials are fully prepared for optimal learning experience. Will This Work For Me?
If you're asking whether this course fits your background, let us be clear: this program is designed to work regardless of where you're starting from. We've had systems engineers go from confusion to confidence in functional safety workflows. Embedded software developers have used this training to lead safety case documentation in their teams. Project managers have leveraged the structured framework to streamline audits and compliance reviews. This works even if: you’ve never implemented ISO 26262 before, your company hasn’t adopted functional safety processes, or you’re transitioning from non-automotive safety standards like IEC 61508. The course breaks down abstract concepts into practical, step-by-step applications using real automotive systems as reference points. - Role-specific example: As a software architect, you’ll learn exactly how to structure safety requirements for ASIL D systems, create traceable safety goals, and define fault tolerance thresholds.
- Role-specific example: As a systems engineer, you’ll master hazard analysis techniques, safety goal derivation, and integration with product development workflows across OEMs and Tier 1 suppliers.
- Role-specific example: As a quality or compliance officer, you’ll gain the ability to audit safety lifecycle artifacts, validate work product completeness, and prepare for certification body assessments.
Don’t just take our word for it: “Before this course, I was overwhelmed by the ISO 26262 documentation. After completing Module 4, I led my team through a successful safety plan review with our client. The clarity this course provides is unmatched.” - Daniel M., Functional Safety Engineer, Germany
“I needed to understand ASIL allocation for my project but had no formal training. This course gave me not just knowledge, but confidence. I presented the safety case to our auditor and passed with zero findings.” - Lena K., Embedded Controls Engineer, Sweden
Your Risk Is Fully Reversed
You have nothing to lose and everything to gain. With lifetime access, expert support, a globally recognized certificate, and a 100% refund guarantee, the only risk is not acting. Every element of this course is designed to reduce friction, increase certainty, and deliver measurable career ROI. You’re not buying a course-you’re investing in a verified, repeatable path to professional credibility in automotive functional safety.
EXTENSIVE & DETAILED COURSE CURRICULUM
Module 1: Foundations of Automotive Functional Safety - Introduction to Functional Safety in the Automotive Industry
- Evolution of Vehicle Complexity and Safety Challenges
- Overview of ISO 26262: Scope, Goals, and Applicability
- Key Definitions: Functional Safety, Safety Goals, Faults, Failures
- Understanding the Safety Lifecycle in ISO 26262
- Differentiating Functional Safety from Other Safety Types
- The Role of Standards in Automotive System Design
- Integration of Functional Safety into Vehicle Development Processes
- Regulatory Context and Legal Responsibilities of Safety-Critical Systems
- Typical Consequences of Functional Safety Failures in Real-World Vehicles
- Overview of Safety Standards Beyond ISO 26262
- Interplay Between ISO 26262 and Other Industry Standards
- Functional Safety Culture in Engineering Organizations
- Understanding the Purpose of Safety Cases
- Introduction to Key Safety Vocabularies: E/E/PE Systems, Operational Modes, Environmental Conditions
Module 2: Understanding ISO 26262 Structure and Organization - Decoding the 12 Parts of ISO 26262
- Function of Each Part and How They Interconnect
- Navigating the Standard’s Clauses for Practical Application
- Understanding Normative vs Informative Content
- How to Use the Standard as a Reference and Not Just a Compliance Checklist
- Identifying Applicable Parts Based on Project Scope
- Document Hierarchy and Reference Model for Safety Artifacts
- Role of Informative Annexes in Clarifying Requirements
- Using Compliance Tables and Implementation Guidance Effectively
- Mapping Development Phases to ISO 26262 Parts
- Differences Between Passenger Vehicles and Commercial Vehicle Applications
- Understanding Application Limitations and Exclusions
- How to Interpret Technical Language in the Standard
- Best Practices for Cross-Referencing Across Parts
- Establishing a Personal Reference System for On-the-Job Use
Module 3: Hazard Analysis and Risk Assessment (HARA) - Defining Hazard Identification Principles and Methods
- Identifying Potential Malfunctions and Their Consequences
- Step-by-Step Construction of a Complete HARA Worksheet
- Classifying Operational Scenarios and Driving Conditions
- Evaluating Severity Levels: S0 to S3
- Determining Exposure Levels: E0 to E4
- Assessing Controllability: C0 to C3
- Combining S, E, and C to Determine ASIL Levels
- Handling Borderline ASIL Classifications
- Differentiating Between Safety Goals and Functional Requirements
- Creating Traceable Links from Hazards to Safety Goals
- Documenting Justifications for ASIL Assignments
- Common Pitfalls in HARA Execution and How to Avoid Them
- Incorporating HARA into Early Design Reviews
- Validating HARA with Cross-Functional Teams
- Revisiting HARA During Product Lifecycle Changes
- Automating HARA Workflows Using Templates and Tools
- Integrating FMEA Results into HARA Input Data
- Using Real-World Accident Data to Inform Hazard Scenarios
- Handling Ambiguity in Driver Reaction Time Estimation
Module 4: ASIL Determination and Decomposition - Detailed Breakdown of ASIL A Through D Requirements
- Differences in Development Rigor Across ASIL Levels
- Impact of ASIL on Testing, Verification, and Validation
- Handling Mixed ASIL Scenarios in Integrated Systems
- Introduction to ASIL Decomposition Principles
- Conditions for Valid ASIL Decomposition
- Splitting ASIL D Requirements into Lower ASIL Components
- Ensuring Independence in Decomposed Architectures
- Demonstrating Redundancy and Fault Containment
- Documenting Justification for Decomposition Cases
- Common Misuses and Limitations of Decomposition
- Handling Decomposition at System, Hardware, and Software Levels
- Integrating ASIL Decomposition with Safety Mechanisms
- Case Studies of Successful and Failed Decomposition
- Using Decomposition to Optimize System Cost Without Compromising Safety
Module 5: Functional Safety Concept Development - Translating Safety Goals into Functional Safety Requirements
- Defining Functional Safety Allocation to System Elements
- Creating Safety Requirement Specifications with Traceability
- Differentiating Between Functional and Technical Safety Requirements
- Establishing Safety Margins and Design Constraints
- Defining Fault Detection, Reaction, and Tolerance Strategies
- Incorporating Diagnostic Coverage Targets
- Setting Quantitative Safety Targets
- Using Functional Safety Concepts in Supplier Communication
- Aligning Safety Concepts with System Architecture
- Integrating Fail-Safe, Fail-Operational, and Graceful Degradation States
- Handling Common Cause Failures at Functional Level
- Establishing Interfaces for Safety-Critical Functions
- Ensuring Unidirectional Influence Between Safety Functions
- Tools for Modeling Functional Safety Dependency Trees
Module 6: Technical Safety Concept and System Design - Mapping Functional Requirements to Technical Implementation
- Developing Technical Safety Requirements with Measurable Criteria
- Distribution of Requirements Across Hardware and Software
- Defining System-Level Safety Mechanisms
- Incorporating Monitoring, Voting, and Self-Test Routines
- Determining Diagnostic Coverage Needs by ASIL Level
- Architecture Patterns for Safety-Critical Systems
- Designing for Fault Tolerance and Graceful Degradation
- Specification of Safety State Transitions
- Integrating Watchdog Timers, CRC Checks, and Memory Protection
- Handling Communication Bus Safety (CAN, FlexRay, Ethernet)
- Ensuring Independence Between Redundant Channels
- Managing Shared Resources to Avoid Conflicts
- Validating Technical Concepts with Stakeholders
- Generating Traceability Matrices from System Level Down
Module 7: Hardware Design for ISO 26262 Compliance - Overview of Hardware Safety Lifecycle Activities
- Defining Hardware Safety Requirements
- Selecting Components Suitable for Target ASIL
- Using Safe Libraries and Proven-in-Use Components
- Conducting Systematic Hardware Failure Analysis
- Performing Failure Mode and Effects Analysis (FMEA)
- Conducting Failure Mode Effects and Diagnostic Analysis (FMEDA)
- Calculating Diagnostic Coverage at Hardware Level
- Estimating Single Point Fault Metrics (SPFM)
- Estimating Latent Fault Metrics (LFM)
- Assessing Probabilistic Metric for Random Hardware Failures (PMHF)
- Interpreting Diagnostic Metrics Against ASIL Targets
- Designing for Inherent Safety: Component Derating and Margins
- Implementing Hardware Redundancy and Voting
- Using Built-In Self-Test (BIST) and Periodic Diagnostics
- Managing Manufacturing Defects and Process Controls
- Ensuring Supply Chain Reliability and Traceability
- Handling Field Return Data and Its Impact on Hardware Safety
Module 8: Software Development in Accordance with ISO 26262 - Transitioning from System to Software Safety Requirements
- Allocating Software Safety Requirements by ASIL Level
- Establishing Software Safety Architecture Principles
- Selecting Software Design Methods and Languages
- Using MISRA C and Other Coding Standards
- Defining Software Unit Interfaces and Contracts
- Incorporating Runtime Checks and Assertions
- Designing for Worst-Case Execution Time (WCET) Compliance
- Ensuring Independence in Concurrent Software Tasks
- Managing Memory and Stack Usage Safely
- Handling Interrupts and Exception Handling Safely
- Using Software Watchdogs and Heartbeat Monitors
- Designing Reentrant and Thread-Safe Code
- Defining Software Safety Mechanisms
- Integrating Diagnostic and Fault Recovery Logic
Module 9: Verification and Validation of Safety Requirements - Differences Between Verification and Validation in Safety Context
- Creating Verification Plans and Procedures
- Using V-Model for Safety-Critical Development
- Defining Test Coverage Objectives by ASIL
- Statement, Branch, and MC/DC Coverage Requirements
- Using Static and Dynamic Analysis Tools
- Structural Coverage Analysis for Embedded Software
- Unit Testing, Integration Testing, and System Testing
- Hardware-in-the-Loop (HIL) Testing Strategies
- Generating Test Cases from Safety Requirements
- Documenting Test Results and Traceability
- Handling Uncertainty in Test Environments
- Using Simulation Tools for Early Validation
- Managing Test Debt and Test Automation
- Evaluating Defect Density and Its Implications
- Conducting Failure Insertion Testing
- Ensuring Reproducibility and Determinism in Testing
Module 10: Safety Management and Organizational Preparedness - Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
Module 1: Foundations of Automotive Functional Safety - Introduction to Functional Safety in the Automotive Industry
- Evolution of Vehicle Complexity and Safety Challenges
- Overview of ISO 26262: Scope, Goals, and Applicability
- Key Definitions: Functional Safety, Safety Goals, Faults, Failures
- Understanding the Safety Lifecycle in ISO 26262
- Differentiating Functional Safety from Other Safety Types
- The Role of Standards in Automotive System Design
- Integration of Functional Safety into Vehicle Development Processes
- Regulatory Context and Legal Responsibilities of Safety-Critical Systems
- Typical Consequences of Functional Safety Failures in Real-World Vehicles
- Overview of Safety Standards Beyond ISO 26262
- Interplay Between ISO 26262 and Other Industry Standards
- Functional Safety Culture in Engineering Organizations
- Understanding the Purpose of Safety Cases
- Introduction to Key Safety Vocabularies: E/E/PE Systems, Operational Modes, Environmental Conditions
Module 2: Understanding ISO 26262 Structure and Organization - Decoding the 12 Parts of ISO 26262
- Function of Each Part and How They Interconnect
- Navigating the Standard’s Clauses for Practical Application
- Understanding Normative vs Informative Content
- How to Use the Standard as a Reference and Not Just a Compliance Checklist
- Identifying Applicable Parts Based on Project Scope
- Document Hierarchy and Reference Model for Safety Artifacts
- Role of Informative Annexes in Clarifying Requirements
- Using Compliance Tables and Implementation Guidance Effectively
- Mapping Development Phases to ISO 26262 Parts
- Differences Between Passenger Vehicles and Commercial Vehicle Applications
- Understanding Application Limitations and Exclusions
- How to Interpret Technical Language in the Standard
- Best Practices for Cross-Referencing Across Parts
- Establishing a Personal Reference System for On-the-Job Use
Module 3: Hazard Analysis and Risk Assessment (HARA) - Defining Hazard Identification Principles and Methods
- Identifying Potential Malfunctions and Their Consequences
- Step-by-Step Construction of a Complete HARA Worksheet
- Classifying Operational Scenarios and Driving Conditions
- Evaluating Severity Levels: S0 to S3
- Determining Exposure Levels: E0 to E4
- Assessing Controllability: C0 to C3
- Combining S, E, and C to Determine ASIL Levels
- Handling Borderline ASIL Classifications
- Differentiating Between Safety Goals and Functional Requirements
- Creating Traceable Links from Hazards to Safety Goals
- Documenting Justifications for ASIL Assignments
- Common Pitfalls in HARA Execution and How to Avoid Them
- Incorporating HARA into Early Design Reviews
- Validating HARA with Cross-Functional Teams
- Revisiting HARA During Product Lifecycle Changes
- Automating HARA Workflows Using Templates and Tools
- Integrating FMEA Results into HARA Input Data
- Using Real-World Accident Data to Inform Hazard Scenarios
- Handling Ambiguity in Driver Reaction Time Estimation
Module 4: ASIL Determination and Decomposition - Detailed Breakdown of ASIL A Through D Requirements
- Differences in Development Rigor Across ASIL Levels
- Impact of ASIL on Testing, Verification, and Validation
- Handling Mixed ASIL Scenarios in Integrated Systems
- Introduction to ASIL Decomposition Principles
- Conditions for Valid ASIL Decomposition
- Splitting ASIL D Requirements into Lower ASIL Components
- Ensuring Independence in Decomposed Architectures
- Demonstrating Redundancy and Fault Containment
- Documenting Justification for Decomposition Cases
- Common Misuses and Limitations of Decomposition
- Handling Decomposition at System, Hardware, and Software Levels
- Integrating ASIL Decomposition with Safety Mechanisms
- Case Studies of Successful and Failed Decomposition
- Using Decomposition to Optimize System Cost Without Compromising Safety
Module 5: Functional Safety Concept Development - Translating Safety Goals into Functional Safety Requirements
- Defining Functional Safety Allocation to System Elements
- Creating Safety Requirement Specifications with Traceability
- Differentiating Between Functional and Technical Safety Requirements
- Establishing Safety Margins and Design Constraints
- Defining Fault Detection, Reaction, and Tolerance Strategies
- Incorporating Diagnostic Coverage Targets
- Setting Quantitative Safety Targets
- Using Functional Safety Concepts in Supplier Communication
- Aligning Safety Concepts with System Architecture
- Integrating Fail-Safe, Fail-Operational, and Graceful Degradation States
- Handling Common Cause Failures at Functional Level
- Establishing Interfaces for Safety-Critical Functions
- Ensuring Unidirectional Influence Between Safety Functions
- Tools for Modeling Functional Safety Dependency Trees
Module 6: Technical Safety Concept and System Design - Mapping Functional Requirements to Technical Implementation
- Developing Technical Safety Requirements with Measurable Criteria
- Distribution of Requirements Across Hardware and Software
- Defining System-Level Safety Mechanisms
- Incorporating Monitoring, Voting, and Self-Test Routines
- Determining Diagnostic Coverage Needs by ASIL Level
- Architecture Patterns for Safety-Critical Systems
- Designing for Fault Tolerance and Graceful Degradation
- Specification of Safety State Transitions
- Integrating Watchdog Timers, CRC Checks, and Memory Protection
- Handling Communication Bus Safety (CAN, FlexRay, Ethernet)
- Ensuring Independence Between Redundant Channels
- Managing Shared Resources to Avoid Conflicts
- Validating Technical Concepts with Stakeholders
- Generating Traceability Matrices from System Level Down
Module 7: Hardware Design for ISO 26262 Compliance - Overview of Hardware Safety Lifecycle Activities
- Defining Hardware Safety Requirements
- Selecting Components Suitable for Target ASIL
- Using Safe Libraries and Proven-in-Use Components
- Conducting Systematic Hardware Failure Analysis
- Performing Failure Mode and Effects Analysis (FMEA)
- Conducting Failure Mode Effects and Diagnostic Analysis (FMEDA)
- Calculating Diagnostic Coverage at Hardware Level
- Estimating Single Point Fault Metrics (SPFM)
- Estimating Latent Fault Metrics (LFM)
- Assessing Probabilistic Metric for Random Hardware Failures (PMHF)
- Interpreting Diagnostic Metrics Against ASIL Targets
- Designing for Inherent Safety: Component Derating and Margins
- Implementing Hardware Redundancy and Voting
- Using Built-In Self-Test (BIST) and Periodic Diagnostics
- Managing Manufacturing Defects and Process Controls
- Ensuring Supply Chain Reliability and Traceability
- Handling Field Return Data and Its Impact on Hardware Safety
Module 8: Software Development in Accordance with ISO 26262 - Transitioning from System to Software Safety Requirements
- Allocating Software Safety Requirements by ASIL Level
- Establishing Software Safety Architecture Principles
- Selecting Software Design Methods and Languages
- Using MISRA C and Other Coding Standards
- Defining Software Unit Interfaces and Contracts
- Incorporating Runtime Checks and Assertions
- Designing for Worst-Case Execution Time (WCET) Compliance
- Ensuring Independence in Concurrent Software Tasks
- Managing Memory and Stack Usage Safely
- Handling Interrupts and Exception Handling Safely
- Using Software Watchdogs and Heartbeat Monitors
- Designing Reentrant and Thread-Safe Code
- Defining Software Safety Mechanisms
- Integrating Diagnostic and Fault Recovery Logic
Module 9: Verification and Validation of Safety Requirements - Differences Between Verification and Validation in Safety Context
- Creating Verification Plans and Procedures
- Using V-Model for Safety-Critical Development
- Defining Test Coverage Objectives by ASIL
- Statement, Branch, and MC/DC Coverage Requirements
- Using Static and Dynamic Analysis Tools
- Structural Coverage Analysis for Embedded Software
- Unit Testing, Integration Testing, and System Testing
- Hardware-in-the-Loop (HIL) Testing Strategies
- Generating Test Cases from Safety Requirements
- Documenting Test Results and Traceability
- Handling Uncertainty in Test Environments
- Using Simulation Tools for Early Validation
- Managing Test Debt and Test Automation
- Evaluating Defect Density and Its Implications
- Conducting Failure Insertion Testing
- Ensuring Reproducibility and Determinism in Testing
Module 10: Safety Management and Organizational Preparedness - Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Decoding the 12 Parts of ISO 26262
- Function of Each Part and How They Interconnect
- Navigating the Standard’s Clauses for Practical Application
- Understanding Normative vs Informative Content
- How to Use the Standard as a Reference and Not Just a Compliance Checklist
- Identifying Applicable Parts Based on Project Scope
- Document Hierarchy and Reference Model for Safety Artifacts
- Role of Informative Annexes in Clarifying Requirements
- Using Compliance Tables and Implementation Guidance Effectively
- Mapping Development Phases to ISO 26262 Parts
- Differences Between Passenger Vehicles and Commercial Vehicle Applications
- Understanding Application Limitations and Exclusions
- How to Interpret Technical Language in the Standard
- Best Practices for Cross-Referencing Across Parts
- Establishing a Personal Reference System for On-the-Job Use
Module 3: Hazard Analysis and Risk Assessment (HARA) - Defining Hazard Identification Principles and Methods
- Identifying Potential Malfunctions and Their Consequences
- Step-by-Step Construction of a Complete HARA Worksheet
- Classifying Operational Scenarios and Driving Conditions
- Evaluating Severity Levels: S0 to S3
- Determining Exposure Levels: E0 to E4
- Assessing Controllability: C0 to C3
- Combining S, E, and C to Determine ASIL Levels
- Handling Borderline ASIL Classifications
- Differentiating Between Safety Goals and Functional Requirements
- Creating Traceable Links from Hazards to Safety Goals
- Documenting Justifications for ASIL Assignments
- Common Pitfalls in HARA Execution and How to Avoid Them
- Incorporating HARA into Early Design Reviews
- Validating HARA with Cross-Functional Teams
- Revisiting HARA During Product Lifecycle Changes
- Automating HARA Workflows Using Templates and Tools
- Integrating FMEA Results into HARA Input Data
- Using Real-World Accident Data to Inform Hazard Scenarios
- Handling Ambiguity in Driver Reaction Time Estimation
Module 4: ASIL Determination and Decomposition - Detailed Breakdown of ASIL A Through D Requirements
- Differences in Development Rigor Across ASIL Levels
- Impact of ASIL on Testing, Verification, and Validation
- Handling Mixed ASIL Scenarios in Integrated Systems
- Introduction to ASIL Decomposition Principles
- Conditions for Valid ASIL Decomposition
- Splitting ASIL D Requirements into Lower ASIL Components
- Ensuring Independence in Decomposed Architectures
- Demonstrating Redundancy and Fault Containment
- Documenting Justification for Decomposition Cases
- Common Misuses and Limitations of Decomposition
- Handling Decomposition at System, Hardware, and Software Levels
- Integrating ASIL Decomposition with Safety Mechanisms
- Case Studies of Successful and Failed Decomposition
- Using Decomposition to Optimize System Cost Without Compromising Safety
Module 5: Functional Safety Concept Development - Translating Safety Goals into Functional Safety Requirements
- Defining Functional Safety Allocation to System Elements
- Creating Safety Requirement Specifications with Traceability
- Differentiating Between Functional and Technical Safety Requirements
- Establishing Safety Margins and Design Constraints
- Defining Fault Detection, Reaction, and Tolerance Strategies
- Incorporating Diagnostic Coverage Targets
- Setting Quantitative Safety Targets
- Using Functional Safety Concepts in Supplier Communication
- Aligning Safety Concepts with System Architecture
- Integrating Fail-Safe, Fail-Operational, and Graceful Degradation States
- Handling Common Cause Failures at Functional Level
- Establishing Interfaces for Safety-Critical Functions
- Ensuring Unidirectional Influence Between Safety Functions
- Tools for Modeling Functional Safety Dependency Trees
Module 6: Technical Safety Concept and System Design - Mapping Functional Requirements to Technical Implementation
- Developing Technical Safety Requirements with Measurable Criteria
- Distribution of Requirements Across Hardware and Software
- Defining System-Level Safety Mechanisms
- Incorporating Monitoring, Voting, and Self-Test Routines
- Determining Diagnostic Coverage Needs by ASIL Level
- Architecture Patterns for Safety-Critical Systems
- Designing for Fault Tolerance and Graceful Degradation
- Specification of Safety State Transitions
- Integrating Watchdog Timers, CRC Checks, and Memory Protection
- Handling Communication Bus Safety (CAN, FlexRay, Ethernet)
- Ensuring Independence Between Redundant Channels
- Managing Shared Resources to Avoid Conflicts
- Validating Technical Concepts with Stakeholders
- Generating Traceability Matrices from System Level Down
Module 7: Hardware Design for ISO 26262 Compliance - Overview of Hardware Safety Lifecycle Activities
- Defining Hardware Safety Requirements
- Selecting Components Suitable for Target ASIL
- Using Safe Libraries and Proven-in-Use Components
- Conducting Systematic Hardware Failure Analysis
- Performing Failure Mode and Effects Analysis (FMEA)
- Conducting Failure Mode Effects and Diagnostic Analysis (FMEDA)
- Calculating Diagnostic Coverage at Hardware Level
- Estimating Single Point Fault Metrics (SPFM)
- Estimating Latent Fault Metrics (LFM)
- Assessing Probabilistic Metric for Random Hardware Failures (PMHF)
- Interpreting Diagnostic Metrics Against ASIL Targets
- Designing for Inherent Safety: Component Derating and Margins
- Implementing Hardware Redundancy and Voting
- Using Built-In Self-Test (BIST) and Periodic Diagnostics
- Managing Manufacturing Defects and Process Controls
- Ensuring Supply Chain Reliability and Traceability
- Handling Field Return Data and Its Impact on Hardware Safety
Module 8: Software Development in Accordance with ISO 26262 - Transitioning from System to Software Safety Requirements
- Allocating Software Safety Requirements by ASIL Level
- Establishing Software Safety Architecture Principles
- Selecting Software Design Methods and Languages
- Using MISRA C and Other Coding Standards
- Defining Software Unit Interfaces and Contracts
- Incorporating Runtime Checks and Assertions
- Designing for Worst-Case Execution Time (WCET) Compliance
- Ensuring Independence in Concurrent Software Tasks
- Managing Memory and Stack Usage Safely
- Handling Interrupts and Exception Handling Safely
- Using Software Watchdogs and Heartbeat Monitors
- Designing Reentrant and Thread-Safe Code
- Defining Software Safety Mechanisms
- Integrating Diagnostic and Fault Recovery Logic
Module 9: Verification and Validation of Safety Requirements - Differences Between Verification and Validation in Safety Context
- Creating Verification Plans and Procedures
- Using V-Model for Safety-Critical Development
- Defining Test Coverage Objectives by ASIL
- Statement, Branch, and MC/DC Coverage Requirements
- Using Static and Dynamic Analysis Tools
- Structural Coverage Analysis for Embedded Software
- Unit Testing, Integration Testing, and System Testing
- Hardware-in-the-Loop (HIL) Testing Strategies
- Generating Test Cases from Safety Requirements
- Documenting Test Results and Traceability
- Handling Uncertainty in Test Environments
- Using Simulation Tools for Early Validation
- Managing Test Debt and Test Automation
- Evaluating Defect Density and Its Implications
- Conducting Failure Insertion Testing
- Ensuring Reproducibility and Determinism in Testing
Module 10: Safety Management and Organizational Preparedness - Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Detailed Breakdown of ASIL A Through D Requirements
- Differences in Development Rigor Across ASIL Levels
- Impact of ASIL on Testing, Verification, and Validation
- Handling Mixed ASIL Scenarios in Integrated Systems
- Introduction to ASIL Decomposition Principles
- Conditions for Valid ASIL Decomposition
- Splitting ASIL D Requirements into Lower ASIL Components
- Ensuring Independence in Decomposed Architectures
- Demonstrating Redundancy and Fault Containment
- Documenting Justification for Decomposition Cases
- Common Misuses and Limitations of Decomposition
- Handling Decomposition at System, Hardware, and Software Levels
- Integrating ASIL Decomposition with Safety Mechanisms
- Case Studies of Successful and Failed Decomposition
- Using Decomposition to Optimize System Cost Without Compromising Safety
Module 5: Functional Safety Concept Development - Translating Safety Goals into Functional Safety Requirements
- Defining Functional Safety Allocation to System Elements
- Creating Safety Requirement Specifications with Traceability
- Differentiating Between Functional and Technical Safety Requirements
- Establishing Safety Margins and Design Constraints
- Defining Fault Detection, Reaction, and Tolerance Strategies
- Incorporating Diagnostic Coverage Targets
- Setting Quantitative Safety Targets
- Using Functional Safety Concepts in Supplier Communication
- Aligning Safety Concepts with System Architecture
- Integrating Fail-Safe, Fail-Operational, and Graceful Degradation States
- Handling Common Cause Failures at Functional Level
- Establishing Interfaces for Safety-Critical Functions
- Ensuring Unidirectional Influence Between Safety Functions
- Tools for Modeling Functional Safety Dependency Trees
Module 6: Technical Safety Concept and System Design - Mapping Functional Requirements to Technical Implementation
- Developing Technical Safety Requirements with Measurable Criteria
- Distribution of Requirements Across Hardware and Software
- Defining System-Level Safety Mechanisms
- Incorporating Monitoring, Voting, and Self-Test Routines
- Determining Diagnostic Coverage Needs by ASIL Level
- Architecture Patterns for Safety-Critical Systems
- Designing for Fault Tolerance and Graceful Degradation
- Specification of Safety State Transitions
- Integrating Watchdog Timers, CRC Checks, and Memory Protection
- Handling Communication Bus Safety (CAN, FlexRay, Ethernet)
- Ensuring Independence Between Redundant Channels
- Managing Shared Resources to Avoid Conflicts
- Validating Technical Concepts with Stakeholders
- Generating Traceability Matrices from System Level Down
Module 7: Hardware Design for ISO 26262 Compliance - Overview of Hardware Safety Lifecycle Activities
- Defining Hardware Safety Requirements
- Selecting Components Suitable for Target ASIL
- Using Safe Libraries and Proven-in-Use Components
- Conducting Systematic Hardware Failure Analysis
- Performing Failure Mode and Effects Analysis (FMEA)
- Conducting Failure Mode Effects and Diagnostic Analysis (FMEDA)
- Calculating Diagnostic Coverage at Hardware Level
- Estimating Single Point Fault Metrics (SPFM)
- Estimating Latent Fault Metrics (LFM)
- Assessing Probabilistic Metric for Random Hardware Failures (PMHF)
- Interpreting Diagnostic Metrics Against ASIL Targets
- Designing for Inherent Safety: Component Derating and Margins
- Implementing Hardware Redundancy and Voting
- Using Built-In Self-Test (BIST) and Periodic Diagnostics
- Managing Manufacturing Defects and Process Controls
- Ensuring Supply Chain Reliability and Traceability
- Handling Field Return Data and Its Impact on Hardware Safety
Module 8: Software Development in Accordance with ISO 26262 - Transitioning from System to Software Safety Requirements
- Allocating Software Safety Requirements by ASIL Level
- Establishing Software Safety Architecture Principles
- Selecting Software Design Methods and Languages
- Using MISRA C and Other Coding Standards
- Defining Software Unit Interfaces and Contracts
- Incorporating Runtime Checks and Assertions
- Designing for Worst-Case Execution Time (WCET) Compliance
- Ensuring Independence in Concurrent Software Tasks
- Managing Memory and Stack Usage Safely
- Handling Interrupts and Exception Handling Safely
- Using Software Watchdogs and Heartbeat Monitors
- Designing Reentrant and Thread-Safe Code
- Defining Software Safety Mechanisms
- Integrating Diagnostic and Fault Recovery Logic
Module 9: Verification and Validation of Safety Requirements - Differences Between Verification and Validation in Safety Context
- Creating Verification Plans and Procedures
- Using V-Model for Safety-Critical Development
- Defining Test Coverage Objectives by ASIL
- Statement, Branch, and MC/DC Coverage Requirements
- Using Static and Dynamic Analysis Tools
- Structural Coverage Analysis for Embedded Software
- Unit Testing, Integration Testing, and System Testing
- Hardware-in-the-Loop (HIL) Testing Strategies
- Generating Test Cases from Safety Requirements
- Documenting Test Results and Traceability
- Handling Uncertainty in Test Environments
- Using Simulation Tools for Early Validation
- Managing Test Debt and Test Automation
- Evaluating Defect Density and Its Implications
- Conducting Failure Insertion Testing
- Ensuring Reproducibility and Determinism in Testing
Module 10: Safety Management and Organizational Preparedness - Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Mapping Functional Requirements to Technical Implementation
- Developing Technical Safety Requirements with Measurable Criteria
- Distribution of Requirements Across Hardware and Software
- Defining System-Level Safety Mechanisms
- Incorporating Monitoring, Voting, and Self-Test Routines
- Determining Diagnostic Coverage Needs by ASIL Level
- Architecture Patterns for Safety-Critical Systems
- Designing for Fault Tolerance and Graceful Degradation
- Specification of Safety State Transitions
- Integrating Watchdog Timers, CRC Checks, and Memory Protection
- Handling Communication Bus Safety (CAN, FlexRay, Ethernet)
- Ensuring Independence Between Redundant Channels
- Managing Shared Resources to Avoid Conflicts
- Validating Technical Concepts with Stakeholders
- Generating Traceability Matrices from System Level Down
Module 7: Hardware Design for ISO 26262 Compliance - Overview of Hardware Safety Lifecycle Activities
- Defining Hardware Safety Requirements
- Selecting Components Suitable for Target ASIL
- Using Safe Libraries and Proven-in-Use Components
- Conducting Systematic Hardware Failure Analysis
- Performing Failure Mode and Effects Analysis (FMEA)
- Conducting Failure Mode Effects and Diagnostic Analysis (FMEDA)
- Calculating Diagnostic Coverage at Hardware Level
- Estimating Single Point Fault Metrics (SPFM)
- Estimating Latent Fault Metrics (LFM)
- Assessing Probabilistic Metric for Random Hardware Failures (PMHF)
- Interpreting Diagnostic Metrics Against ASIL Targets
- Designing for Inherent Safety: Component Derating and Margins
- Implementing Hardware Redundancy and Voting
- Using Built-In Self-Test (BIST) and Periodic Diagnostics
- Managing Manufacturing Defects and Process Controls
- Ensuring Supply Chain Reliability and Traceability
- Handling Field Return Data and Its Impact on Hardware Safety
Module 8: Software Development in Accordance with ISO 26262 - Transitioning from System to Software Safety Requirements
- Allocating Software Safety Requirements by ASIL Level
- Establishing Software Safety Architecture Principles
- Selecting Software Design Methods and Languages
- Using MISRA C and Other Coding Standards
- Defining Software Unit Interfaces and Contracts
- Incorporating Runtime Checks and Assertions
- Designing for Worst-Case Execution Time (WCET) Compliance
- Ensuring Independence in Concurrent Software Tasks
- Managing Memory and Stack Usage Safely
- Handling Interrupts and Exception Handling Safely
- Using Software Watchdogs and Heartbeat Monitors
- Designing Reentrant and Thread-Safe Code
- Defining Software Safety Mechanisms
- Integrating Diagnostic and Fault Recovery Logic
Module 9: Verification and Validation of Safety Requirements - Differences Between Verification and Validation in Safety Context
- Creating Verification Plans and Procedures
- Using V-Model for Safety-Critical Development
- Defining Test Coverage Objectives by ASIL
- Statement, Branch, and MC/DC Coverage Requirements
- Using Static and Dynamic Analysis Tools
- Structural Coverage Analysis for Embedded Software
- Unit Testing, Integration Testing, and System Testing
- Hardware-in-the-Loop (HIL) Testing Strategies
- Generating Test Cases from Safety Requirements
- Documenting Test Results and Traceability
- Handling Uncertainty in Test Environments
- Using Simulation Tools for Early Validation
- Managing Test Debt and Test Automation
- Evaluating Defect Density and Its Implications
- Conducting Failure Insertion Testing
- Ensuring Reproducibility and Determinism in Testing
Module 10: Safety Management and Organizational Preparedness - Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Transitioning from System to Software Safety Requirements
- Allocating Software Safety Requirements by ASIL Level
- Establishing Software Safety Architecture Principles
- Selecting Software Design Methods and Languages
- Using MISRA C and Other Coding Standards
- Defining Software Unit Interfaces and Contracts
- Incorporating Runtime Checks and Assertions
- Designing for Worst-Case Execution Time (WCET) Compliance
- Ensuring Independence in Concurrent Software Tasks
- Managing Memory and Stack Usage Safely
- Handling Interrupts and Exception Handling Safely
- Using Software Watchdogs and Heartbeat Monitors
- Designing Reentrant and Thread-Safe Code
- Defining Software Safety Mechanisms
- Integrating Diagnostic and Fault Recovery Logic
Module 9: Verification and Validation of Safety Requirements - Differences Between Verification and Validation in Safety Context
- Creating Verification Plans and Procedures
- Using V-Model for Safety-Critical Development
- Defining Test Coverage Objectives by ASIL
- Statement, Branch, and MC/DC Coverage Requirements
- Using Static and Dynamic Analysis Tools
- Structural Coverage Analysis for Embedded Software
- Unit Testing, Integration Testing, and System Testing
- Hardware-in-the-Loop (HIL) Testing Strategies
- Generating Test Cases from Safety Requirements
- Documenting Test Results and Traceability
- Handling Uncertainty in Test Environments
- Using Simulation Tools for Early Validation
- Managing Test Debt and Test Automation
- Evaluating Defect Density and Its Implications
- Conducting Failure Insertion Testing
- Ensuring Reproducibility and Determinism in Testing
Module 10: Safety Management and Organizational Preparedness - Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Establishing a Functional Safety Management System
- Defining Roles and Responsibilities: Safety Manager, Owner, Analyst
- Developing a Safety Plan for the Project
- Conducting Safety Audits and Assessments
- Managing Safety Work Products and Configuration
- Using Change Management Processes for Safety Items
- Planning for Supplier Involvement and Oversight
- Developing Safety Requirements for Contractual Agreements
- Conducting Safety Reviews at Key Milestones
- Preparing for External Safety Assessments
- Building a Safety Culture: Training and Awareness
- Integrating Functional Safety into Product Development Processes
- Managing Safety Risks with Risk Registers
- Documenting Safety Justifications and Assumptions
- Handling Safety Conflicts and Trade-Offs
Module 11: Supplier Management and Interface Control - Defining Safety Requirements for Suppliers
- Selecting Suppliers Based on Functional Safety Competence
- Using ISO 26262-5 for Supplier Oversight
- Creating Functional Safety Agreements and Contracts
- Managing Distributed Development Across Organizations
- Ensuring Traceability from OEM to Tier 1 and Tier 2
- Handling Subcontracting and Third-Party Components
- Conducting Supplier Audits and Technical Reviews
- Validating Supplier Safety Deliverables
- Integrating Supplier Inputs into System-Level Safety Case
- Managing Communication and Conflict Resolution
- Using Interface Control Documents for Safety-Critical Functions
- Ensuring Data Consistency Across Organizational Boundaries
Module 12: Safety Case Development and Certification Readiness - Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Understanding the Purpose and Structure of a Safety Case
- Developing Safety Arguments Using GSN (Goal Structuring Notation)
- Linking Evidence to Claims Through Logical Arguments
- Identifying and Collecting Safety Evidence
- Structuring Safety Reports for Review Bodies
- Preparing for Third-Party Certification Assessments
- Responding to Findings from TÜV, DEKRA, or Other Notified Bodies
- Correcting Non-Conformities and Closure of Action Items
- Presenting Safety Artifacts with Confidence
- Handling Ambiguities in Certification Requests
- Building a Living Safety Case for Future Products
- Reusing Safety Evidence in Derivative Designs
Module 13: Advanced Concepts in Automotive Functional Safety - Functional Safety for Electric and Autonomous Vehicles
- Handling SOTIF (Safety of the Intended Functionality)
- Integrating AI and Machine Learning Components Safely
- Dealing with Unknown Unknowns in Perception Systems
- Functional Safety in OTA (Over-the-Air) Update Scenarios
- Security and Safety Interactions (Cybersecurity Impacting Safety)
- Managing Legacy Systems in Safety-Critical Vehicles
- Functional Safety in Retrofit and Aftermarket Applications
- Handling Safety in Multi-Domain Controllers
- Long-Term Maintenance and End-of-Life Safety Planning
- Functional Safety for Charging Systems and Battery Management
- Safety Implications of Vehicle-to-Everything (V2X)
- Adaptive ASIL Approaches Based on Usage Scenarios
- Safety for Shared Driving Responsibilities
- Real-Time Performance and Safety Expectations
Module 14: Hands-On Projects and Real-World Applications - Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects
Module 15: Progress Tracking, Certification, and Career Advancement - Using Built-In Checklists to Monitor Learning Progress
- Completing Module Assessments to Validate Understanding
- Accessing Pre-Certification Readiness Quizzes
- Receiving Feedback on Practical Assignment Submissions
- Preparing Your Certificate of Completion Package
- Understanding How Employers View The Art of Service Certification
- Adding Your Credential to LinkedIn and Professional Resumes
- Using Your Training to Support Promotions and Salary Negotiations
- Transitioning into Functional Safety Roles or Leadership Positions
- Building a Portfolio of Safety Work Artifacts for Interviews
- Accessing Alumni Resources and Continuing Education
- Staying Updated with Evolving ISO 26262 Best Practices
- Leveraging Your Knowledge to Train Others in Your Organization
- Positioning Yourself as a Safety Subject Matter Expert
- Final Review: Integrating All Concepts into a Cohesive Mastery Framework
- Project 1: Conducting a Full HARA for an Advanced Driver Assistance System
- Project 2: Deriving Safety Goals and Assigning ASIL Levels
- Project 3: Creating a Functional Safety Concept for a Brake Control Module
- Project 4: Developing Technical Safety Requirements for a Powertrain ECU
- Project 5: Designing a Hardware Safety Architecture with FMEDA Analysis
- Project 6: Writing Safety-Critical Software Requirements in MISRA-Compliant Code
- Project 7: Building a Traceability Matrix Across System, Hardware, and Software
- Project 8: Planning and Executing a Safety Verification Campaign
- Project 9: Preparing a Safety Case for a Vehicle Platform
- Project 10: Simulating a Certification Audit and Responding to Findings
- Integrating Lessons from Case Studies of Real Safety Failures
- Peer Review of Safety Artifacts Using Best Practice Checklists
- Using Templates for Efficient Work Product Creation
- Automating Safety Workflow Documentation
- Creating Reusable Safety Patterns Across Projects