在Vov=Vds=1V, SS=95 mV/dec, High Ion/Ioff=2×106条件下,同时离子浓度为1235 μA/μm的高性能Ge无结栅极全方位非场效应管,采用选择性激光退火技术回收S/D掺杂剂,降低了噪声功率密度

I-Hsieh Wong, Fang-Liang Lu, Shih-Hsien Huang, Hung-Yu Ye, Chun-Ti Lu, Jhih-Yang Yan, Yu-Cheng Shen, Yu-Jiun Peng, H. Lan, C. W. Liu
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引用次数: 8

摘要

在不注入离子的情况下,将相同的CVD p掺杂epi-Ge在SOI上进行选择性激光退火,同时获得了1.2×1019 cm−3的低通道掺杂浓度以耗尽通道和1.2×1020 cm−3的高S/D掺杂以降低S/D电阻。当Wfin降至7 nm, EOT = 2.2 nm, Lch = 60 nm时,器件的Ion = 1146 μA/pm, Ion/Ioff = 2×106, SS = 95 mV/dec。当外单轴拉伸应变为0.16%时,离子可进一步提升至1235 μA/μm。自热效应是产生高离子的部分原因,因为较高的器件温度可以减少通道中主要杂质的散射。迁移率随温度升高而增加,表明杂质散射起主导作用。由于无结栅极全能(GAA)场效应管的体传导特性,与平面反转模式(INV)器件相比,无结栅极场效应管具有更低的低频噪声。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High performance Ge junctionless gate-all-around NFETs with simultaneous Ion =1235 μA/μm at Vov=Vds=1V, SS=95 mV/dec, high Ion/Ioff=2×106, and reduced noise power density using S/D dopant recovery by selective laser annealing
The low channel doping concentrations of 1.2×1019 cm−3 to deplete the channel and the high S/D doping of 1.2×1020 cm−3 to reduce the S/D resistance are achieved simultaneously by selective laser annealing on the same CVD P-doped epi-Ge on SOI without ion implantation. The device with Wfin down to 7 nm, EOT = 2.2 nm, and Lch = 60 nm has Ion = 1146 μA/pm, Ion/Ioff = 2×106, and SS = 95 mV/dec. The Ion can be further boost to 1235 μA/μm with external uniaxial tensile strain of 0.16%. The self-heating effect is responsible in part for such high Ion, because the high device temperature can reduce the dominant impurity scattering in the channel. The increasing mobility with increasing temperature indicates the impurity scattering is dominant. The lower low frequency noise is observed with junctionless (JL) gate-all-around (GAA) FETs than planar inversion mode (INV) devices due to the bulk conduction nature of JL FETs.
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