Radiation-Hardened Design and Experimental Validation Using a Mixed-Stage Model for Reliability Assessment of Integrated Circuits in Radiation Environments

With advances in space, nuclear, and defense industries, the susceptibility of semiconductor integrated circuits (ICs) to radiation has increased. Radiation-induced degradation and malfunctioning of IC performance can lead to system failure, leading to significant damage. To address this limitation, this study employed mixed-stage modeling and simulation (M&S) techniques to evaluate the reliability of complementary metal-oxide semiconductor application-specific ICs (ASICs) in radiation environments. Radiation-hardened IC chips were designed and fabricated using layout modification techniques based on M&S. The ASIC, which includes the D-latch and Operational Amplifier (Op-Amp) circuits, was validated for resistance up to a total ionizing dose of 20 kGy(Si). The proposed radiation-hardened ICs demonstrated stable performance even in radiation-exposed environments, ensuring reliable operation under such conditions. The findings provide insights into overcoming radiation-induced degradation and malfunction in semiconductor integrated circuits, which is particularly relevant for advancing space, nuclear, and defense industries.

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Publication Details

Journal
Electronics
Published
2025-03-25
DOI
https://doi.org/10.3390/electronics14071296
Primary Topic
Radiation Effects in Electronics
Type
article
Field-Weighted Citation Impact
0.00

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article

Radiation-Hardened Design and Experimental Validation Using a Mixed-Stage Model for Reliability Assessment of Integrated Circuits in Radiation Environments

Seong-Ik Cho, Min-Woong Lee, Donghan Ki, Nam-Ho Lee
Electronics
Radiation Effects in Electronics
article

Radiation-Hardened Design and Experimental Validation Using a Mixed-Stage Model for Reliability Assessment of Integrated Circuits in Radiation Environments

Seong-Ik Cho, Min-Woong Lee, Donghan Ki, Nam-Ho Lee
article en

Abstract

With advances in space, nuclear, and defense industries, the susceptibility of semiconductor integrated circuits (ICs) to radiation has increased. Radiation-induced degradation and malfunctioning of IC performance can lead to system failure, leading to significant damage. To address this limitation, this study employed mixed-stage modeling and simulation (M&S) techniques to evaluate the reliability of complementary metal-oxide semiconductor application-specific ICs (ASICs) in radiation environments. Radiation-hardened IC chips were designed and fabricated using layout modification techniques based on M&S. The ASIC, which includes the D-latch and Operational Amplifier (Op-Amp) circuits, was validated for resistance up to a total ionizing dose of 20 kGy(Si). The proposed radiation-hardened ICs demonstrated stable performance even in radiation-exposed environments, ensuring reliable operation under such conditions. The findings provide insights into overcoming radiation-induced degradation and malfunction in semiconductor integrated circuits, which is particularly relevant for advancing space, nuclear, and defense industries.

ElectronicsVol. 14(7)
Korea Atomic Energy Research Institute (KR), Jeonbuk National University (KR)
Institute of Civil-Military Technology Cooperation
Openalex Percentile: Top 95%
Radiation Effects in Electronics
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