AUT 211 – Automotive ISO 26262: Road Vehicles Functional Safety

Course Information

Description

Electronic systems carry out many functions in modern automobiles, including driver assistance functions, vehicle dynamics control, and active/passive safety systems. The complexity of electronically-driven operations, especially safety functions, makes predicting safety performance extremely difficult. More action will be required, furthermore, to reduce the risks of systematic and random hardware failures as system complexity continues to increase.

ISO 26262 is a functional safety standard intended to be applied to the development of software for electrical and/or electronic (E/E) systems in automobiles. ISO 26262 is an adaptation of the broader IEC 61508 safety standard, which has been used to derive safety standards for the nuclear power, machinery, railway, and other industries. It is aimed at reducing risks associated with software for safety functions to a tolerable level by providing feasible requirements and processes.

This course offers an introductory to the standard from a software and hardware level.

 

Organizer Notes

FSP exam offered at the end of the training.

Please read our Terms & Conditions before signing up for our courses.

 

Course Duration

4 days

 

Target Audience

  • Reliability engineer
  • Electrical engineer
  • Software engineer
  • Automotive engineer
  • Robotics engineer
  • Mechatronics engineer
 

 

 Course Topics

Hardware Level

  • Section 1: Overview of Functional Safety and ISO 26262
    • Introduction in Functional Safety: Why Functional Safety in Automotive Industry?
  • Section 2: ISO 26262 Functional Safety Management and Supporting Processes (part 2 and 8)
  • Section 3: ISO 26262 Concept Phase
    • Item definition
    • Impact analysis
    • Hazard Analysis and Risk Assessment
    • Functional Safety Concept
    • Safety Element out of Context
  • Section 4: ISO 26262 System Development with Analyses (part 4 and 9)
    • Technical Safety Concept
    • Hardware Software Interface specification
    • Item Integration and Testing
    • Validation
    • Release for Production
  • Section 5: ISO 26262 Hardware Development with Analyses (part 5 and 9)
    • Hardware Safety Lifecycle
    • Initiation of the HW-Safety development
    • HW Safety Requirements
    • Hardware Design
    • Hardware Design Verification
    • IC Design Implementation
    • Hardware Integration and Testing
    • Hardware Design verification: Intro into Fault Tree Analysis (FTA)
    • Evaluation of the hardware architectural metrics
    • Failure Mode Effects and Diagnostics Analysis (FMEDA)
    • Evaluation of safety goal violations due to random hardware failures

 

Software Level

  • Section 1: Software Lifecycle and Development
    • Software Safety Lifecycle
    • Initiation of product development at the software level
    • Design & Coding Guidelines
    • Software Safety Requirements
    • Hardware Software Interface specification
    • Semi-Formal Software Architectural Design
    • ASIL Decomposition & Co-Existence
    • ASIL Decomposition and Independence Mechanism on Software Level
    • Co-Existence and freedom from interference
    • Software Unit Design and Implementation
  • Section 2: Software Testing
    • Verification of Software Safety Requirements
  • Section 3: Software Analysis
  • Section 4: Supporting Processes
    • Tool Classification and Qualification
    • Software Components Qualification
  • Course Review

 

What Participants will get

  • Course Manual with class exercises and solutions
  • Resources such as whitepapers
  • Certificate of Completion
  • exida Functional Safety Practitioner (FSP) certificate (upon passing)

Course Fees

Exclusive rates available for early bird and group signups! Contact us for more details!

Course Schedule

 The FSP Exam (Automotive Specialty):

The exida Functional Safety Practitioner (FSP) program is a certificate program that provides confirmation that an attendee shows competency by retaining the knowledge presented in this course. The FSP program also provides an analysis of where the candidate’s strengths and weaknesses lie, helping participants judge their competency level if interested in obtaining a certification like the CFSE or CFSP. The exam will be given at the conclusion of the training course. The candidate must achieve a minimum of 80% on the exam in order to receive their FSP certificate.