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ISO 26262 Academy · Learning path · open to read

Hardware Safety Engineer

Part 5 end to end: mechanisms, metrics, FMEDA and qualification of safety-related hardware.

  • 4 weeks
  • 22 items
  • 13.6 hours
  • 1 free with an account

Career Path gives you an assessment and a roadmap based on your experience and goals. This track is the fixed schedule for one role.

The schedule

Week by week.

Guides, practice and checks in the order they build on each other. Open a guide to see what it covers; each item shows every plan that includes it.

  1. Week 1Functional safety foundations → Hardware development essentials3h 28m
  2. Week 2Hardware architectural metrics → FMEDA & dependent failures3h 52m
  3. Week 3FMEDA & dependent failures → Qualification & interfaces3h 48m
  4. Week 4Qualification & interfaces → Semiconductors (Part 11)2h 26m

Templates

119 work-product templates come with this path

Ready-to-adapt documents matched to the modules above. Reference material, not extra hours on your schedule.

  • Functional Safety Concept
  • HAZOP Worksheet
  • Hazard Analysis and Risk Assessment Report
  • Item Definition
  • Motorcycle HARA Verification Report
  • Motorcycle Hazard Analysis and Risk Assessment
  • Motorcycle Item Definition
  • Verification Report of the Hazard Analysis and Risk Assessment
  • Analysis of Effectiveness of Hardware Architecture
  • Analysis of Safety Goal Violations Due to Random Hardware Failures
  • FMEDA Worksheet (Board-level)
  • Hardware Architecture Metrics Verification Report
  • +107 more

Further reading

Also on this track.

Related guides outside the core schedule, for when you want to go wider.

Browse all guides
  • Vehicle domainsBattery & HV Powertrain SafetyFunctional safety for electric vehicles from cell to wheel: how lithium-ion cells fail, the BMS measurement chain, contactors and HVIL, isolation monitoring, safe torque, charging and thermal runaway, plus the FMEDA and FTTI work behind it.Expert plan pricing14 chapters
  • System levelEMC & Transient SafetyThe environment as a fault source: how EMI, ESD, load dump and coupled transients become random faults, the ISO 7637 / ISO 11452 / ISO 10605 standards map, immunity as a safety argument, and filtering, shielding and plausibility as safety measures.Expert plan pricing13 chapters
  • HardwareFPGA SafetyHardware whose circuit is data: configuration upsets and essential bits, scrubbing against the FTTI, TMR in the fabric, HDL discipline, tool confidence, and the FPGA FMEDA that closes the safety case.Expert plan pricing14 chapters
  • Vehicle domainsInverter and Motor Control SafetyHow a traction inverter earns its ASIL: unintended-torque hazards, Active Short Circuit vs freewheeling safe states, three-level torque monitoring, and the protection layers from gate driver to control software.Expert plan pricing12 chapters
  • System levelPower & Clock SupervisionThe two assumptions every other safety mechanism silently depends on: valid supply rails and a trustworthy time base. Power trees, safety PMICs, voltage monitors, sequencing, reset escalation, watchdogs, clock monitors, the independence argument, timing and energy budgets, latent-fault self-test, and the FMEDA rows they all feed.Expert plan pricing14 chapters
  • HardwareSoft Errors & Transient FaultsA cosmic ray hits a memory cell and your ASIL D function computes with a wrong value. This concept walks from the physics of radiation-induced bit flips through single event effects, ECC and hardened design, all the way to Part 11 quantification.Expert plan pricing12 chapters

Start this path

Week one starts with a free account.

The free plan opens the first items on every track: one full concept guide, 3 templates, 1 process, the Markov and RBD simulators and 5 practice exams a month. Pro and Expert unlock the rest of the schedule.