从器件和电路角度分析纳米片场效应晶体管(NSFET)

Priyesh Kumar, Sarita Yadav, P. Pal
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引用次数: 1

摘要

从器件和电路的角度分析了通道长度为7nm的纳米片场效应晶体管(NSFET)和纳米线场效应晶体管。在模拟上述器件时,tio2用作电介质。在该装置中,片厚为5nm,片间距为10nm。锡被用作栅极金属。这些器件被称为全栅极晶体管。他们对短通道效应有更好的控制。高k材料用于减少短沟道效应,通过增加栅极控制,沟道长度低于20nm。但这也增加了条纹电容,从而增加了RC延迟。而纳米片场效应晶体管(NSFET)具有较好的RC延迟和驱动电流。在这些器件中,片宽是可变的,驱动电流随着片宽的增加而增加。本文介绍了6T SRAM单元。从蝶形曲线中得到静态噪声裕度,发现纳米线的读噪声裕度优于非源场效应管,而写噪声裕度优于非源场效应管。N曲线更适合于寻找SRAM参数,因为在此信息中电压和电流都是可用的。
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Analysis of Nanosheet Field Effect Transistor (NSFET) for device and circuit perspective
This paper presents an analysis of Nanosheet Field Effect Transistor (NSFET) and Nanowire FET for device and circuit perspective with 7nm channel length. While simulating the above device TiO2is used as a dielectric. In this device sheet thickness is 5nm and sheet pitch is 10nm. TiN is used as a gate metal. These devices are termed as gate all around transistor. Theyhave bettercontrol over short channel effect. High k material is used for reducing short channel effect by increasing gate control for channel length below 20 nm. But this also increases fringes capacitance due to which RC delay is increased. However, Nanosheet Field Effect Transistor (NSFET)have better RC delay and drive current. In these devices sheet width is variable and drive current increases with increase in sheet width. In this paper, 6T SRAM cell is explained. Static noise margin is found from the butterfly curve from which we realized that read noise margin of Nanowire is better than that of NSFET but write noise margin is better in NSFET.N curve is more appropriate for finding SRAM parameters because in thisinformation about both voltage and current are available.
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