源极/漏极Underlap双材料梯度通道圆柱栅极场效应管的性能分析

Praveen Kumar Mudidhe, B. Nistala
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引用次数: 0

摘要

本文研究了欠迭对双材料梯度通道圆柱栅极(DMGC - CGAA FET)的影响。由于栅极静电控制的改进,多栅极结构比典型的块体器件具有更好的短通道控制能力。DMGC CGAA场效应管因其易于制造而成为多栅极器件的潜在候选器件。在所提出的器件中包含栅极覆盖,提高了短通道抗扰度。为了进一步提高器件性能,在搭接区域内加入了不同类型的垫片。对于所提出的器件,underlap长度$(L_{un})$优化为4.5 nm。仿真结果表明,该方法在开关比$(\frac{I_{on}}}{I_{off}})$、亚阈值摆幅(SS)等ses方面均有改善。研究了不同类型间隔剂的直流和模拟/射频性能,发现与其他间隔剂相比,HfO2具有更好的亚阈值性能。利用Sentaurus TCAD仿真器提取仿真结果,并用实验数据对装置进行标定。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance Analysis of Dual Material Graded Channel Cylindrical Gate All Around (DMGC CGAA) FET with Source/Drain Underlap
In this paper the effect of underlap on Dual material graded channel cylindrical gate all around FET (DMGC CGAA FET) has been investigated. Due to improved gate electrostatic control, multigate structures have greater short channel control than typical bulk devices. The DMGC CGAA FET is a potential candidate among the multi gate devices because of its ease of manufacture. The inclusion of gate underlap in the proposed device improves the short channel immunity. To further enhance the device performance different types of spacers are incorpo-rated in the underlap regions. The underlap length $(L_{un})$ was optimized at 4.5 nm for the proposed device. Simulation results shows that there is an improvement in the switching ratio $(\frac{I_{on}}{I_{off}})$, subthreshold swing (SS) and other SCEs. The DC and Analog/RF performance was investigated with different types of spacers and observed that HfO2 results the better subthreshold performance compared with other spacers. Sentaurus TCAD simulator was used to extract the simulation results and to calibrate the device with experimental data.
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