Safety Analysis Techniques
EE-40189
Learn the most common safety analysis techniques
System Analysis Techniques course gives an overview and classification of methods used to assess the safety of a system. Most common safety analysis methods are laid out and their workflows are described in detail. The methods covered include Preliminary Hazard List (PHL), Preliminary Hazard Analysis (PHA), Failure Mode and Effect Analysis and its variants (FMEA/FMEDA/FMECA/Fu-FMEA), Functional Failure Analysis (FFA), Hazard and Operability Analysis (HAZOP), Fault Tree Analysis (FTA), Event Tree Analysis (ETA).
The course has a high practical dimension, with numerous examples including group work for course participants, which will conduct each method over a practical technical system of choice. The focus of the practical exercises would emphasize the automotive domain, with analysis tackling specifics of hardware and software components in a system safety decomposition and the key quantification including Safe Failure Fraction and Diagnostic Coverage.
Course Highlights:
- Introduction to safety analysis methods
- System model analysis
- Hazard and Operability Analysis (HAZOP) and Functional Failure Analysis (FFA)
- Hazard analysis
- Failure Mode and Effect Analysis (FMEA)
- Fault Tree Analysis (FTA)
Course Benefits:
- Understand the background of safety analysis methods and the criteria to apply them
- Select the appropriate method based on their purpose, advantages and disadvantages
- Grasp the differences between the various methods, their preconditions, and their expected results
- Apply safety analysis methods on simple examples or small projects
Course Typically Offered: Live Online during Fall, Winter and Summer quarter
Prerequisites: Students should have basic engineering knowledge in either one of the following disciplines: electrical engineering, computer engineering, or mechanical engineering. Have taken previously Systems, Functions and Safety course or equivalent experience.
Hardware (required): Computer with Internet connection, working speakers and microphone.
Next steps: Upon completion of this course, consider taking other courses in the Functional Safety Fundamentals For Automotive Certificate
More information: Contact unexengr@ucsd.edu to learn more about Functional Safety Fundamentals For Automotive and course offerings.
Course Information
Course sessions
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Textbooks:
All course materials are included unless otherwise stated.
Policies:
- No refunds after: 11/9/2024
Schedule:
Instructor: Vladimir Marinkovic
Dr. Marinkovic is also a lead embedded engineer in RT-RK Automotive (Serbia), delivering hardware and software solutions for the major automotive industry Tier1 companies (Vioneer, Valeo). His work includes hardware design with the focus on Field Programmable Gate Arrays (FPGAs) and their application for the automotive-grade hardware including the formal safety analysis and relevant safety methodology for hardware (e.g. FMEDA).
Section ID:
Class type:
This course is entirely web-based and to be completed asynchronously between the published course start and end dates. Synchronous attendance is NOT required.
You will have access to your online course on the published start date OR 1 business day after your enrollment is confirmed if you enroll on or after the published start date.
Textbooks:
All course materials are included unless otherwise stated.
Policies:
- No refunds after: 7/4/2025
Schedule:
Instructor: Vladimir Marinkovic
Dr. Marinkovic is also a lead embedded engineer in RT-RK Automotive (Serbia), delivering hardware and software solutions for the major automotive industry Tier1 companies (Vioneer, Valeo). His work includes hardware design with the focus on Field Programmable Gate Arrays (FPGAs) and their application for the automotive-grade hardware including the formal safety analysis and relevant safety methodology for hardware (e.g. FMEDA).