Radiation Handbook for Electronics
A compendium of radiation effects topics for space, industrial and terrestrial applications
Overview
This comprehensive handbook explores radiation effects on electronics across space, industrial, and terrestrial applications. It covers radiation environments (space, terrestrial, artificial), particle interactions with matter, and both dose effects (TID, displacement damage) and single-event effects. The guide details radiation sensitivity by technology, mitigation techniques through process and design hardening, and testing/qualification procedures. Written for engineers and scientists, it provides practical guidance on understanding, predicting, and mitigating radiation-induced failures in semiconductor devices.
What you will learn from this handbook
- Radiation environments: Characteristics of space radiation (galactic cosmic rays, solar radiation, Van Allen belts), terrestrial neutron flux, and artificial radiation in medical/industrial settings
- Physical mechanisms: How different particles (photons, electrons, ions, neutrons) interact with semiconductor materials and deposit energy
- Failure modes: Total ionizing dose effects, displacement damage, single-event upsets, latchup, transients, burnout, and gate rupture mechanisms
- Technology sensitivity: How CMOS, bipolar, and BiCMOS technologies respond differently to radiation based on feature size and architecture
- Mitigation strategies: Radiation hardening by process (RHBP) and design (RHBD), including layout techniques, redundancy, and error correction
- Testing procedures: Detailed guidance on TID testing, heavy-ion testing, proton testing, and qualification standards (MIL-STD-883, JESD57)