Accelerated Testing for Product Reliability
Design accelerated tests to estimate how products perform over their service lives.
- Regions
- United States, Canada, India, Europe
- Access
- Private / corporate
- Delivery
- Face-to-face
Five-day course on IEC 61508 for people who identify and analyse safety aspects of E/E/PE systems: the safety life-cycle, system, hardware and software safety requirements, risk and SIL determination, and safety analysis techniques.
Covers the compliance requirements of the seven-part IEC 61508 standard and its two principles: a safety life-cycle built on best practice to find and remove design errors, and a probabilistic approach to the safety impact of device failures. Over five days it works through the scope of the standard and its deliverables, the E/E/PE safety life-cycle (phases and activities for systems and software, verification and validation, functional safety assessment, competency requirements), safety requirements for the system and hardware (hardware safety integrity, architectural constraints by SIL, integration and commissioning, systematic capability and proven-in-use arguments), safety requirements for software (software safety life-cycle, architecture, coding standards and test strategy by SIL, static and dynamic analysis), risk concepts and safety integrity (tolerable risk, HARA, common-cause and systematic failures, SIL determination by ALARP, risk graph and layer of protection analysis), and the techniques and measures used to achieve functional safety, including traceability and safety analysis with FMEA, FTA and HAZOP. Each day includes a breakout exercise, and the course ends with a two-hour final exam.
Omnex states that the course applies irrespective of application domain.
Facilitator not identified in public sources checked.
Scope and compliance requirements of IEC 61508 and its seven parts · Requirements for the E/E/PE safety life-cycle
Safety life-cycle (continued): project schedule exercise · Safety requirements for the system and hardware
Safety requirements for software: life-cycle, architecture, coding standards, test strategy, verification and validation
Risk concepts and safety integrity: HARA, failure types, SIL determination methods
Functional safety techniques and measures: traceability, FMEA, FTA, HAZOP, SIL-oriented verification and validation · Final exam (2 hours)
Final exam (2 hours) on the last day.
Design accelerated tests to estimate how products perform over their service lives.
Three-day blended short course on the systems engineering and safety assurance of autonomous systems that use AI, from hazards and machine learning assurance to human-autonomy teaming and the autonomous systems safety case.
Two-day hands-on course on system and design FMEA using the AIAG-VDA seven-step approach, from boundary and P diagrams to risk analysis, optimisation and design verification planning (DVP&R), with an optional certification exam.