High-frequency analog GNR-FET design criteria

I. Imperiale, A. Gnudi, E. Gnani, S. Reggiani, G. Baccarani
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引用次数: 6

Abstract

Some key aspects of the behavior of graphene nanoribbon (GNR) FETs for high-frequency analog applications are identified and discussed by means of a simulation study based on a full-quantum ballistic transport model. GNRs of width in the order of 10 nm are considered, where the small band-gap and the consequent leakage currents due to band-to-band-tunneling (BTBT) require a careful design. Simulations performed with a realistic model for source/drain metal contacts indicate that a proper choice of the drain doping profile can partially suppress BTBT currents. A 40-nm gate-length 2-nm SiO2 gate-dielectric GNR-FET can achieve a peak small-signal voltage gain of about 30 and a cut-off frequency well above 1 THz.
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高频模拟GNR-FET设计准则
通过基于全量子弹道输运模型的仿真研究,确定并讨论了用于高频模拟应用的石墨烯纳米带场效应管(GNR)行为的一些关键方面。考虑宽度为10 nm的gnr,其中小带隙和由此引起的带间隧道(BTBT)泄漏电流需要仔细设计。用一个真实的源极/漏极金属触点模型进行的模拟表明,适当选择漏极掺杂谱可以部分抑制BTBT电流。一个40 nm门长2 nm SiO2门介电态GNR-FET可以实现约30的峰值小信号电压增益和远高于1太赫兹的截止频率。
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