双栅无结TFET在不同高k材料和氧化物厚度下的性能分析

Pratikhya Raut, U. Nanda, D. Panda, H. Nguyen
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引用次数: 0

摘要

本文研究了双栅无结隧道场效应晶体管(DGJL-TFET)。双栅的存在增强了对电流传导通道的高可控性,并通过改变其介电常数的介电材料和改变氧化材料的厚度,对其输入输出特性等各项参数进行了性能分析。利用TCAD模拟器对该装置进行了完整的仿真和分析。模拟结果表明,介电常数高的介质材料具有良好的电学特性,而厚度值最小的氧化物具有良好的离子/离合比,有利于更好的电流传导。因此,该器件是一种很有前途的低功耗器件。此外,通过使用高介电常数的介电介质,增加了导通电流,使器件具有更大的柔韧性。
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Performance Analysis of Double Gate Junctionless TFET with respect to different high-k materials and oxide thickness
Double gate junction-less tunnel field effect transistor (DGJL-TFET) is investigated in this paper. The presence of double gate enhances high control over the channel for current conduction and the performance analysis of various parameters like input and output characteristics have been carried out by varying its dielectric materials with different dielectric constant and changing the thickness of oxide material. The complete device simulation and analysis are made using TCAD simulator. The simulation results depicting that the dielectric materials with high dielectric constant yields good electrical characteristics and the oxide with the least thickness value helps in better current conduction with good Ion/Ioff ratio. So this device is a promising device for low power application. Also by using dielectric with high dielectric constant increases the ON current which makes the device more flexible in nature.
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