基于QuantumATK的sb - gnfet和d - gnfet的设计

P. Venkatramana, P. Nagarajan, S. J. Basha
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引用次数: 0

摘要

近年来,石墨烯纳米带场效应晶体管(gnrfet)被认为是半导体技术中有前途的候选者,因为它具有出色的性能,如大迁移率,强度和导电性。本文介绍了肖特基势垒GNRFET (SBGNRFET)和掺杂GNRFET (D-GNRFET)的设计,研究了它们在ON和OFF电流、I-V曲线和跨导方面的性能。所提出的晶体管是在QuantumATK模拟器上开发的。由于掺杂浓度的不同,d - gnfet的性能优于sb - gnfet。晶体管的结果是由非平衡格林函数产生的。利用泊松条件求解器求解静电势。
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Design of SB-GNRFET and D-GNRFET using QuantumATK
In recent days, graphene nanoribbon field-effecttransistors (GNRFETs) are considered as promising candidate in semiconductor technology because it’s outstanding properties such as large mobility, strength, and electrical conductivity. The design of Schottky barrier GNRFET (SBGNRFET) and doped GNRFET (D-GNRFET) are presented in this work to investigate their performance in terms of ON and OFF currents, I-V curves and transconductance. The presented transistors are developed in the QuantumATK simulator. The D-GNRFET shows high-performance over the SB-GNRFET due to the doping concentrations. The results of the transistors are produced by non-equilibrium Green’s function. The Poisson condition solver is utilized to evaluate electrostatic potential.
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