双门控n沟道石墨烯MOSFET的分析建模与设计优化

Md. Selim Reza, Md. Tawfiq Amin
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引用次数: 0

摘要

本文提出了一种具有大面积石墨烯沟道的双门控n沟道石墨烯金属氧化物半导体场效应晶体管(MOSFET)。在Comsol V5.6软件中使用半经典弹道模型计算了该设计的直流特性、量子电容和截止频率。对于双栅形成,SiO2层用作后栅氧化物,HfO2层用作上栅氧化物。本文提出的石墨烯MOSFET易于实现,并且可以使用最新的制造技术轻松制造。分析方法表明,石墨烯具有更小的阈值电压、更大的电流能力、极小的栅极电容和更好的截止频率。优异的特性将使所提出的石墨烯MOSFET成为未来高速模拟电子电路应用的优秀候选人。
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Analytical Modeling and Design Optimization of Dual Gated n-channel Graphene MOSFET
This paper presents a dual gated n-channel graphene metal-oxide-semiconductor field-effect transistor (MOSFET) with a gapless large-area graphene channel. The semiclassical ballistic model is used in Comsol V5.6 software to calculate the DC characteristics, quantum capacitance, and cut-off frequency for this proposed design. For dual gate formation, SiO2 is used as back gate oxide and HfO2 layer is used as top gate oxide. This proposed Graphene MOSFET is easy to realize and can be easily fabricated by using the recent fabrication technique. The analytical approach shows, Graphene offers less threshold voltage, larger current capability, very little gate capacitance and is having a better cut-off frequency. The excellent characteristics will make the proposed Graphene MOSFET an excellent candidate in future high-speed analog electronic circuits applications.
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