比较现有和拟议的SOI MOSFET器件结构,以减少总剂量辐射损伤

S. Parke
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引用次数: 6

摘要

本文比较了各种SOI MOSFET器件结构在减轻总电离剂量(TID)辐射效应方面的能力。为了减少在器件周围介电界面积聚的辐射诱导电荷引起的源漏泄漏,需要对通道周围的介电材料进行三维辐射硬化和/或直接控制通道表面。此外,为了补偿这些TID效应以及其他磨损效应,提供器件电特性的动态调整是非常可取的。本文还介绍了美国半导体公司的一种新型超低功耗SOI RF-CMOS技术,该技术能够在高辐射环境中可靠地工作。这种双门控0.18 /spl mu/m技术允许动态“自我修复”电路,可以承受大寿命总辐射剂量。该技术还具有mosfet和横向BJT,具有适合低温操作的未掺杂通道/基区。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Comparison of existing & proposed SOI MOSFET device structures for minimizing total dose radiation damage
This paper compares various SOI MOSFET device structures with regard to their ability to mitigate total ionizing dose (TID) radiation effects. Three-dimensional rad-hardening of the dielectrics surrounding the channel and/or direct control of the channel surfaces is required, in order to reduce source-to-drain leakage caused by radiation-induced charges which accumulate at the dielectric interfaces surrounding the device. In addition, it is highly desirable to provide dynamic adjustment of the device's electrical characteristics in order to compensate for these TID effects as well as other wearout effects. A new, ultra-low-power SOI RF-CMOS technology from American Semiconductor that is able to operate reliably in high radiation environments is also be described. This double-gated 0.18 /spl mu/m technology permits dynamically "self-repairing" circuits, which are tolerant of large lifetime total doses of radiation. This technology also features MOSFETs and lateral BJT's with undoped channel/base regions that are appropriate for cryogenic operation.
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