Radiation hardening is a critical discipline for ensuring the reliability of electronic components exposed to ionizing environments such as space, nuclear reactors, and high‑energy particle accelerators. Understanding how radiation degrades device performance underpins the design of robust systems for aerospace, defense, and scientific instrumentation. This tool introduces learners to the computational foundations needed to address these challenges.
The resource guides users through MATLAB programming techniques tailored to radiation‑hardening analyses, including the implementation of dose‑rate calculations, displacement‑damage modeling, and charge‑collection simulations. Learners explore script‑based workflows that integrate material‑specific parameters, solve governing equations for carrier generation and trap formation, and generate quantitative predictions of device behavior. Visualization routines employing MATLAB’s plotting functions enable detailed inspection of temporal and spatial radiation effects, while built‑in data‑handling utilities support the import and processing of experimental measurement files.
By completing the exercises, learners acquire the ability to author MATLAB code that directly addresses radiation studies, construct simulations that predict how radiation influences semiconductor devices, and perform comprehensive analysis and visualization of resulting data sets. These competencies empower users to evaluate design margins, optimize shielding strategies, and contribute to research efforts aimed at improving the resilience of electronic systems in harsh radiation environments.