具有未掺杂沟道和未掺杂漏极的隧道场效应管设计:在积累状态下无双极导通

Upasana, Mridula Gupta, Ashish Kumar
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引用次数: 1

摘要

这项工作强调了一种新提出的具有未掺杂漏极的TFET结构的优点。在这项工作中,我们分析了栅极介电材料的堆叠(高介电材料下的低k)和源极和漏极之间的高掺杂n+口袋区域,以进一步提高导态特性。这种新结构的性能与对称掺杂p-i-n DG TFET进行了比较。通过仿真,观察和研究了栅极偏置、漏极偏置和金属栅极功函数值对器件电位分布、能带分布和电荷浓度分布(漏极内)的影响。此外,还比较了对称型和未掺杂漏极型TFET的漏极电流分布。这种新提出的结构在积累状态下没有隧道,有助于减少寄生元件的动态功耗,这似乎有利于开关应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Tunnel FET design with undoped channel and undoped drain regions: No ambipolar conduction in accumulation regime
The work highlights the benefits of one of the newly proposed TFET architecture with undoped drain. In this work the architecture has been analyzed with a stack of gate dielectric material (low-k beneath a high-k dielectric) and a heavily doped n+ pocket region between source and drain to further boost the on-state characteristics. The performance of this newly proposed architecture has been compared with symmetrically doped p-i-n DG TFET. Through simulation, the impact of varying gate bias, drain bias and metal gate work function values over the varying potential profile, energy band profile and the charge concentration profile (inside drain region of the device) has been observed and investigated carefully. Furthermore, the drain current profiles for both symmetric TFET and the TFET with undoped drain have been compared with and without pocket cases. This newly proposed architecture offers no tunneling during accumulation state and helps in reducing dynamic power dissipation through parasitic components which seems beneficial for switching applications.
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