METS:电热灵敏度的度量,及其在finfet上的应用

Brian Swahn, S. Hassoun
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引用次数: 3

摘要

随着器件尺寸继续缩小到90nm以下,器件自热成为一个紧迫的问题,影响迁移率和泄漏电流。耦合电热模拟可以用来评估影响。然而,模拟非常耗时。此外,它并没有深入了解设备对自热的性能稳健性。我们在本文中提出了一种新的度量,电热灵敏度(METS)度量,用于表征器件对自加热的电稳健性。我们证明了METS在表征finfet方面的有效性,finfet是一种新型双栅器件,由于其泄漏电流减少,有望取代传统的mosfet。finfet是METS的理想案例研究,因为它们具有超薄的机身,因此容易自热。我们表明,我们提出的度量,METS,能够表征finfet在导通和关断状态下的自热行为
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METS: a metric for electro-thermal sensitivity, and its application to FinFETs
While device dimensions continue to shrink into the sub-90nm range, device self-heating emerges as a pressing problem, affecting both mobility and leakage current. Coupled electro-thermal simulation can be used to assess the impact. Simulation, however, is time consuming. Furthermore, it does not give insight into the device's performance robustness against self-heating. We propose in this paper a novel metric, metric for electro-thermal sensitivity (METS), for characterizing a device's electrical robustness to self-heating. We demonstrate the effectiveness of METS in characterizing FinFETs, novel double-gate devices promising to replace traditional MOSFETs because of their reduced leakage currents. FinFETs are an ideal case study for METS as they have ultra thin bodies and are thus prone to self-heating. We show that our proposed metric, METS, is capable of characterizing the self-heating behavior of FinFETs in the on and off states
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