自顶向下方法的栅极全能纳米线mosfet

H. Wu, X. Lou, M. Si, J. Zhang, R. Gordon, V. Tokranov, S. Oktyabrsky, P. Ye
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引用次数: 3

摘要

InAs栅极全能(GAA)纳米线mosfet首次通过自上而下的方法进行了实验证明[1-3]。由于控制良好的纳米线释放过程和新颖的ALD高k/金属栅极堆叠工艺,可以实现沟道长度(Lch)为380 ~ 20nm,纳米线宽度(WNW)为60 ~ 20nm的InAs nfet。在EOT为3.9 nm时,在Vds = Vgs = 2 V时获得了4.3 A/mm的高漏极电流,在Vds = 1 V时获得了1.6 S/mm的最大跨导(gmax), WNW = 20 nm, Lch = 180 nm,由纳米线周长归一化。进行了详细的可扩展性研究(VTH, gm, Ids与Lch)。本研究中的器件显示出对纳米线宽度的强烈依赖,更小的纳米线尺寸提供了更强的电性能和更好的抗短通道效应(SCEs)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
InAs gate-all-around nanowire MOSFETs by top-down approach
InAs gate-all-around (GAA) nanowire MOSFETs are experimentally demonstrated for the first time by a top-down approach [1-3]. Thanks to the well-controlled nanowire release process and the novel ALD high-k/metal gate stack process, InAs nFETs with channel length (Lch) ranging from 380 to 20 nm and nanowire width (WNW) from 60 to 20 nm are achieved. With an EOT of 3.9 nm, high drain current of 4.3 A/mm at Vds = Vgs = 2 V and maximum transconductance (gmax) of 1.6 S/mm at Vds = 1 V are obtained in a device with WNW = 20 nm and Lch = 180 nm, normalized by the perimeter of the nanowires. A detailed scalability study (VTH, gm, Ids vs. Lch) was carried out. The devices in this study show strong dependence on the nanowire width and smaller nanowire size offers much enhanced electrical performance and better immunity from the short channel effects (SCEs).
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