Single Event Burnout Sensitivity Prediction Based on Commercial MOSFET Electrical Characteristics Analysis

L. Kessarinskiy, V.S. Kessarinskiy, A. Tararaksin, A. Shirin, D. Boychenko
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引用次数: 1

Abstract

Power MOSFET transistors are the main part of the power supply system for any equipment, including spacecraft. Modern vertical MOSFETs are designed as regular matrix structures of elementary parallel cells (mini-transistors), made according to submicron process. Single event burnout (SEB) of a vertical cell is the main mechanism for failure of vertical MOSFETs from single particle effect. In addition to SEB, there are several other reasons for the MOSFET burnout, caused by extremal bias, that are tested during manufacturing. The MOSFETs SEB sensitivity prediction model is presented. The model is based on the analysis of burnout bias characteristics from the datasheets. The comparison of experimental data and model prediction results is presented in the article. The figure of merit (FOM) for SEB sensitivity prediction is proposed. The optimal value of FOM for n-MOSFETs and LET 40 MeV cm2/mg is presented. So, the model helps to determine the most sensitive MOSFET transistors before expensive testing done.
基于商用MOSFET电特性分析的单事件烧毁灵敏度预测
功率MOSFET晶体管是包括航天器在内的任何设备供电系统的主要组成部分。现代垂直mosfet是按照亚微米工艺制作的基本并联单元(微型晶体管)的规则矩阵结构。垂直晶元的单事件烧坏(SEB)是垂直mosfet在单粒子效应下失效的主要机制。除了SEB之外,在制造过程中测试的由极端偏置引起的MOSFET烧毁还有其他几个原因。提出了mosfet的SEB灵敏度预测模型。该模型基于对数据表中职业倦怠偏差特征的分析。本文对实验数据和模型预测结果进行了比较。提出了SEB灵敏度预测的优值图(FOM)。提出了n- mosfet的FOM和LET的最佳值为40 MeV cm2/mg。因此,该模型有助于在进行昂贵的测试之前确定最敏感的MOSFET晶体管。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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