Performance analysis of Silicon-On-Nothing MOSFET under 100nm technology nodes

P. Lakhera, S. Sundriyal, B. Kumar
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引用次数: 1

Abstract

In this paper, we inspect and analyze the performance, electrical response and schematic of silicon-on-nothing MOSFET at 45nm and 35nm channel length by utilizing Silvaco TCAD simulator. Eventually, the parameter extraction analysis is experienced in terms of leakage current, trans-conductance, Drain Induced Barrier Lowering (DIBL), threshold voltage and on-off current ratio. Although, the main advantage of simulating SON MOSFET is that it works efficiently for sub 100nm technology nodes and minimizes short channel effects (SCE) upto greater extent. Additionally, SON MOSFET gives minimum power dissipation, lesser leakage current, and minimizes self-heating issues by incorporating an air dielectric layer which have lower dielectric value in comparison to Silicon dioxide dielectric layer. The main reason for finding an alternative for MOSFET is that, in MOSFET it is immensely unfortunate to get minimum leakage current value and lower length for the channel layer. Therefore, SON structure is incorporated in-place of bulk MOSFET that overcomes all these problems below 100nm channel length. Also, due to rapid and continuous development in the nanotechnology research area, it is extremely essential to have smaller size of semiconductor devices so that they generate better outcomes at different nanotechnology nodes, i.e. 60nm, 50nm, 45nm, 35nm, 30nm, 22nm etc. In future research, SON MOSFET will provide the best alternative to semiconductor and nanotechnology industry.
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无硅MOSFET在100nm工艺节点下的性能分析
本文利用Silvaco TCAD模拟器对无硅MOSFET在45nm和35nm通道长度下的性能、电响应和原理图进行了测试和分析。最后,从泄漏电流、跨导、漏极感应势垒降低(DIBL)、阈值电压和通断电流比等方面进行参数提取分析。尽管如此,模拟SON MOSFET的主要优点是它在低于100nm的技术节点上有效地工作,并最大程度地减少了短通道效应(SCE)。此外,SON MOSFET具有最小的功耗,更小的泄漏电流,并通过结合与二氧化硅介电层相比具有更低介电值的空气介电层来最大限度地减少自热问题。寻找MOSFET替代品的主要原因是,在MOSFET中,获得最小泄漏电流值和较低沟道层长度是非常不幸的。因此,采用SON结构代替大块MOSFET,克服了100nm通道长度以下的所有这些问题。此外,由于纳米技术研究领域的快速和持续发展,半导体器件的尺寸越小,在不同的纳米技术节点,即60nm, 50nm, 45nm, 35nm, 30nm, 22nm等产生更好的结果是非常必要的。在未来的研究中,SON MOSFET将成为半导体和纳米技术行业的最佳替代品。
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