采用无硅栅结构的叠层硅纳米片全栅晶体管可抑制寄生效应并提高电路性能

IF 1.8 4区 材料科学 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY
Lianlian Li, Lei Cao, Xuexiang Zhang, Qingkun Li, Meihe Zhang, Zhenhua Wu, Guanqiao Sang, Renjie Jiang, Peng Wang, Yunjiao Bao, Qingzhu Zhang, Anyan Du, Huaxiang Yin
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引用次数: 0

摘要

我们提出了一种带有空气子鳍的新型无硅(SON)结构,用于抑制堆叠式硅纳米片(NS)全栅(GAA)晶体管的寄生沟道效应,并通过三维 TCAD 仿真进行了系统研究。SON 结构可通过背面选择性蚀刻技术制造。所提出的 SON NSFET 采用了设计好的空气子鳍结构,具有系统性优势,包括子沟道中的关态电流降低了 40%,通断电流比(ION/IOFF)提高了 51.37%,有效电容降低了 7.04%。此外,在相同频率下,17 级环形振荡器(RO)的功率降低了约 21.62%,在相同延迟下,能量降低了约 16.30%。与传统的基于 GAA NSFETs 的 6T-SRAM 相比,基于 SON NSFETs 的 6T-SRAM 的读取时间和写入时间分别缩短了 14.66% 和 67.53%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Stacked Si Nanosheets Gate-All-Around Transistors with Silicon-on-Nothing Structure for Suppressing Parasitic Effects and Improving Circuits’ Performance
We propose a novel silicon-on-nothing (SON) structure with an air sub-fin for suppressing the parasitic channel effects on stacked Si nanosheets (NS) gate-all-around (GAA) transistors and a systematic investigation is carried out by 3D TCAD simulation. The SON structure could be fabricated using a backside selective etching technique. The proposed SON NSFETs with a designed air sub-fin structure demonstrates systematic advantages, including 40% off-state current reduction in the sub-channel, and 51.37% promotion for on-off current ratio (ION/IOFF) and 7.04% reduction in effective capacitance. Moreover, there is approximately 21.62% power reduction under the same frequency, and about 16.30% energy reduction under the same delay in 17-stage ring oscillators (ROs). The SON NSFETs-based 6T-SRAM exhibits decreased read time and write time by 14.66% and 67.53%, respectively, compared with those of the conventional GAA NSFETs-based 6T-SRAM.
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来源期刊
ECS Journal of Solid State Science and Technology
ECS Journal of Solid State Science and Technology MATERIALS SCIENCE, MULTIDISCIPLINARY-PHYSICS, APPLIED
CiteScore
4.50
自引率
13.60%
发文量
455
期刊介绍: The ECS Journal of Solid State Science and Technology (JSS) was launched in 2012, and publishes outstanding research covering fundamental and applied areas of solid state science and technology, including experimental and theoretical aspects of the chemistry and physics of materials and devices. JSS has five topical interest areas: carbon nanostructures and devices dielectric science and materials electronic materials and processing electronic and photonic devices and systems luminescence and display materials, devices and processing.
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