包含陷阱效应的纳米级GCGS - DG MOSFET的精确二维阈值电压模型

T. Bentrcia, F. Djeffal, M. Abdi, M. Chahdi, N. Boukhennoufa
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引用次数: 7

摘要

毫无疑问,基于纳米电子学的应用是下一次工业革命的主力,这种重要性促使了对控制纳米级组件行为方面的新模型的加速研究。尽管GCGS DG MOSFET的拓扑结构已被证明具有优势,但挑战仍在继续,特别是在零件模型的准确性和新发明器件的另一部分可靠性方面。本文探索了基于表面电位的方法,推导了低漏源极电压下纳米级GCGS - DG MOSFET的解析阈值电压模型。我们得到的结果与传统的DG mosfet相比有很大的改进。本文提出的以下步骤可能为与纳米级DG mosfet对热载子降解效应的免疫相关的有意义的可靠性测量提供指导和方向。
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An accurate two dimensional threshold voltage model for nanoscale GCGS DG MOSFET including traps effects
There is no doubt that nanoelectronics based applications are the workhorse of the next industrial revolution, such importance has induced an accelerated research towards novel models governing behavior aspects of nanoscale components. Despite the proved advantages of GCGS DG MOSFET's topology, challenges continue to occur particularly concerning from a part model's accuracy and from another part reliability of new invented devices. This paper explores the surface -potential -based approach to derive an analytical threshold voltage model for nanoscale GCGS DG MOSFET at low drain-source voltage. Our obtained results showed considerable improvement compared to conventional DG MOSFETs. Followed steps presented herein may provide guidance and orientation needed for meaningful reliability measurements related to immunity of nanoscale DG MOSFETs against the hot-carrier degradation effects.
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