Engineer's Handbook Of Radiation Effects On Embedded Systems

A single ionizing particle, invisible and impossible to predict in advance, can flip a memory bit, destroy a power transistor instantly, or quietly degrade an amplifier's precision until a mission fails months later. For engineers designing electronics for space, aircraft altitude, or any radiation-intense environment, this is not a remote risk. It is a design requirement with zero tolerance for guesswork, and most engineers are left piecing it together from a datasheet paragraph here and a standards document there.
This handbook closes that gap with one continuous framework spanning fifteen chapters, more than a hundred fully worked numerical examples, and a complete reference back matter. It develops the physics of how a single strike or an accumulated dose damages a semiconductor device, every major failure mechanism across digital, analog, and power electronics, the process-, circuit-, and system-level hardening techniques that address each mechanism specifically, and the test methodology and hardness-assurance framework that turns a design decision into a verified, defensible case.
Working through this handbook, engineers will be able to: - Understand why a device fails, not only that it fails, through the physics of total ionizing dose, displacement damage, and single-event effects - Calculate real threshold shifts, cross-sections, and on-orbit upset rates from first-principles relationships, using one consistent, fully worked method - Apply a coherent three-layer hardening strategy across process, circuit, and system architecture, and know exactly which layer addresses which mechanism - Size real hardening structures, including guard rings, interlocked storage cells, and error-correcting and triple-modular-redundant architectures, from real parameters - Plan and interpret heavy-ion, proton, and total-dose test campaigns, and assemble a mission-level rate and dose budget from the results - Build a full radiation-hardness-assurance case connecting mission environment, margin philosophy, and test evidence into one framework - Reinforce every chapter with practice problems and complete, explained answer keys
Chapters move systematically from the space and atmospheric radiation environment through total ionizing dose, displacement damage, and the full family of single-event effects, including upset, transient, functional interrupt, latchup, burnout, and gate rupture, across digital, analog, power, and programmable-logic circuits. Later chapters cover hardening by process and by design, system-level fault-tolerant architectures, complete test methodology, and the hardness-assurance process tying requirements to flight qualification. A glossary, list of symbols, chapter-referenced index, and formula appendix make this book as useful as an ongoing desk reference as it is a cover-to-cover read, with coverage spanning both the space and the atmospheric environment relevant to avionics.
Written for practicing electrical, electronics, and systems engineers in aerospace, defense, satellite, and avionics programs, as well as reliability and hardness-assurance engineers, test engineers, instructors, and graduate students entering the field. No prior radiation-effects background is assumed, though familiarity with semiconductor devices and basic circuit design will help.
Stop assembling radiation-hardness knowledge one fragment at a time. Add this handbook to your engineering reference library and begin building a genuine, engineering-grade understanding of why electronics fail in radiation environments, and exactly how to design, test, and verify against it, starting with the very first chapter.