首页> 外文期刊>Nuclear Instruments & Methods in Physics Research. B, Beam Interactions with Materials and Atoms >Analysis of Total Ionizing Dose effects for highly scaled CMOS devices in Low Earth Orbit
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Analysis of Total Ionizing Dose effects for highly scaled CMOS devices in Low Earth Orbit

机译:低地球轨道上大规模CMOS器件的总电离剂量效应分析

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Total Ionizing Dose (TID) effects are an essential concern for integrated devices that are operating in space environment. We present in this work an extensive study of TID effects in Deep-Submicron and Nanoscale CMOS technologies. Principal aspects are the changes of the transistors I-V characteristics due to TID effects, the variation of the threshold voltage and the impact of radiation on the carrier densities and mobility as well as on the electrical potentials and the leakage currents. Further, we discuss a potential solution that reduces TID effects in CMOS devices. The device level simulations consider a satellite application that orbits in Low Earth Orbit (LEO), leading to dose levels of up to 500 krad(Si). Results clearly indicate the high impact of TID on the transistor parameters, enforcing the designer to consider countermeasures in order to guarantee the circuits reliability.
机译:对于在太空环境中运行的集成设备,总电离剂量(TID)效果至关重要。我们在这项工作中介绍了深亚微米和纳米级CMOS技术中TID效应的广泛研究。主要方面是由于TID效应引起的晶体管I-V特性的变化,阈值电压的变化以及辐射对载流子密度和迁移率以及对电势和泄漏电流的影响。此外,我们讨论了一种可降低CMOS器件中TID效应的潜在解决方案。设备级模拟考虑了在近地轨道(LEO)中运行的卫星应用,导致剂量水平高达500 krad(Si)。结果清楚地表明了TID对晶体管参数的高影响,迫使设计人员考虑对策以保证电路的可靠性。

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