Physics

Radiation-damaged silicon chips maintain performance across extreme temperatures

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Silicon carbideRadiation hardeningComplementary meta…

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This study examines how 4H-silicon carbide (SiC) complementary metal-oxide-semiconductor (CMOS) current mirrors perform across different temperatures after exposure to proton radiation. Researchers found that proton irradiation affects the operating margins of these integrated circuits, with performance variations dependent on temperature conditions. The work characterizes the radiation tolerance of SiC-based CMOS devices, which are designed for harsh-environment electronics applications.


Silicon carbide electronics can operate in extreme conditions where conventional silicon fails, making them valuable for space applications, nuclear environments, and high-temperature industrial systems. Understanding how radiation damage affects their performance at various temperatures is essential for designing reliable electronics for satellites, planetary exploration missions, and radiation-exposed infrastructure.


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Silicon carbide Concept coming soon Radiation hardening Concept coming soon Complementary metal-oxide-semiconductor Concept coming soon

Source: Temperature-dependent operating margins of proton-irradiated integrated 4H-SiC CMOS current mirrors