TCAD Simulation of Novel Multi-Spacer HK/MG 28nm Planar MOSFET for Sub-threshold Swing and DIBL Optimization

Fuente: arXiv
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Autores principales: Xiao, Zhentao, Zheng, Yihao, Zhang, Zonghao, Shi, Jinhong, Wang, Chenxing, Jiang, Yunteng, Huang, Haimeng, Islam, Aynul, Yang, Hongqiang
Formato: Preprint
Publicado: 2024
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author Xiao, Zhentao
Zheng, Yihao
Zhang, Zonghao
Shi, Jinhong
Wang, Chenxing
Jiang, Yunteng
Huang, Haimeng
Islam, Aynul
Yang, Hongqiang
author_facet Xiao, Zhentao
Zheng, Yihao
Zhang, Zonghao
Shi, Jinhong
Wang, Chenxing
Jiang, Yunteng
Huang, Haimeng
Islam, Aynul
Yang, Hongqiang
contents This study optimizes 28 nm planar MOSFET technology to reduce device leakage current and enhance switching speed. The specific aims are to decrease subthreshold swing (S.S.) and mitigate drain induced barrier lowering (DIBL) effect. Silvaco TCAD software is used for process (Athena) and device (Atlas) simulations. For the further development of MOSFET technology, we implemented our device (planar 28 nm n-MOSFET) with high-k metal-gate (HK/MG), lightly doped drain (LDD), multiple spacers (mult-spacers), and silicide. Simulation validation shows improvements over other 28 nm devices, with lower static power consumption and notable optimizations in both S.S. (69.8 mV/dec) and DIBL effect (30.5 mV/V).
format Preprint
id arxiv_https___arxiv_org_abs_2409_15015
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle TCAD Simulation of Novel Multi-Spacer HK/MG 28nm Planar MOSFET for Sub-threshold Swing and DIBL Optimization
Xiao, Zhentao
Zheng, Yihao
Zhang, Zonghao
Shi, Jinhong
Wang, Chenxing
Jiang, Yunteng
Huang, Haimeng
Islam, Aynul
Yang, Hongqiang
Applied Physics
This study optimizes 28 nm planar MOSFET technology to reduce device leakage current and enhance switching speed. The specific aims are to decrease subthreshold swing (S.S.) and mitigate drain induced barrier lowering (DIBL) effect. Silvaco TCAD software is used for process (Athena) and device (Atlas) simulations. For the further development of MOSFET technology, we implemented our device (planar 28 nm n-MOSFET) with high-k metal-gate (HK/MG), lightly doped drain (LDD), multiple spacers (mult-spacers), and silicide. Simulation validation shows improvements over other 28 nm devices, with lower static power consumption and notable optimizations in both S.S. (69.8 mV/dec) and DIBL effect (30.5 mV/V).
title TCAD Simulation of Novel Multi-Spacer HK/MG 28nm Planar MOSFET for Sub-threshold Swing and DIBL Optimization
topic Applied Physics
url https://arxiv.org/abs/2409.15015