Physics-based capacitance model of Gate-on-Source/Channel SOI TFET

被引:8
|
作者
Mitra, Suman Kumar [1 ]
Bhowmick, Brinda [1 ]
机构
[1] Natl Inst Technol, Dept Elect & Commun Engn, Silchar 788010, Assam, India
来源
MICRO & NANO LETTERS | 2018年 / 13卷 / 12期
关键词
silicon-on-insulator; field effect transistors; surface potential; semiconductor device models; tunnelling; tunnel transistors; silicon; elemental semiconductors; semiconductor doping; gate-to-source capacitance; gate oxide thickness; source doping; Si; switching speed; gate-on-source-channel silicon-on-insulator tunnel field effect transistor; TCAD; gate voltage effect; drain voltage effect; Miller capacitance; surface potential-based analytical capacitance model; GOSC SOI TFET; physics-based capacitance model; model formulation; FIELD-EFFECT TRANSISTORS; TUNNEL FET; PARASITIC CAPACITANCES; OPTIMIZATION;
D O I
10.1049/mnl.2018.5214
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
A surface potential-based analytical capacitance model is proposed for gate-on-source-channel silicon on insulator (SOI) tunnel field effect transistor (GOSC TFET). The capacitance in the GOSC TFET is evidently shared by the gate-to-source capacitance which reduces the miller capacitance and leads to better switching speed in the circuit application. The effect of drain voltage, gate voltage, gate oxide thickness and source doping on the capacitance has been analysed in detail. The good matching between the modelled and Technology Computer-Aided Design (TCAD) simulated surface potential leads to the accurate calculation of capacitance. The validation of the capacitance model is done by comparing the model result with the simulation result and a good agreement between them validates the model formulation.
引用
收藏
页码:1672 / 1676
页数:5
相关论文
共 50 条
  • [11] Optimizing Gate-on-Source Overlapped TFET Device Parameters by Changing Gate Differential Work Function and Overlap Dielectric
    Elgamal, Muhammad
    Fedawy, Mostafa
    PROCEEDINGS OF 2019 INTERNATIONAL CONFERENCE ON INNOVATIVE TRENDS IN COMPUTER ENGINEERING (ITCE 2019), 2019, : 347 - 352
  • [12] Physics-based model of the surrounding-gate MOSFET
    Jiménez, D
    Iñíguez, B
    Roig, J
    Suñe, J
    Marsal, LF
    Pallars, J
    Flores, D
    2005 SPANISH CONFERENCE ON ELECTRON DEVICES, PROCEEDINGS, 2005, : 393 - 396
  • [13] A physics based model for negative capacitance TFET considering variation in ferroelectric parameters
    Chaudhary, Shalini
    Dewan, Basudha
    Singh, Devenderpal
    Yadav, Menka
    ENGINEERING RESEARCH EXPRESS, 2024, 6 (03):
  • [14] MOS3: A New Physics-Based Explicit Compact Model for Lightly Doped Short-Channel Triple-Gate SOI MOSFETs
    Kloes, Alexander
    Schwarz, Mike
    Holtij, Thomas
    IEEE TRANSACTIONS ON ELECTRON DEVICES, 2012, 59 (02) : 349 - 358
  • [15] A physics-based, dynamic thermal impedance model for SOI MOSFET's
    Brodsky, JS
    Fox, RM
    Zweidinger, DT
    Veeraraghavan, S
    IEEE TRANSACTIONS ON ELECTRON DEVICES, 1997, 44 (06) : 957 - 964
  • [16] A physics-based compact model of shield gate trench MOSFET
    Jiang, Yixun
    Qiao, Ming
    Guo, Yin
    Zheng, Zuquan
    Shen, Lijun
    Liu, Xinxin
    Zhang, Sen
    Li, Zhaoji
    Zhang, Bo
    MICROELECTRONICS JOURNAL, 2023, 131
  • [17] Physics Based Current and Capacitance Model of Short-Channel Double Gate and Gate-All-Around MOSFETs
    Borli, H.
    Kolberg, S.
    Fjeldly, T. A.
    2008 2ND IEEE INTERNATIONAL NANOELECTRONICS CONFERENCE, VOLS 1-3, 2008, : 493 - 498
  • [18] A Physics-Based Model of Vertical TFET--Part I: Modeling of Electric Potential
    Cheng, Qi
    Khandelwal, Sourabh
    Zeng, Yuping
    IEEE TRANSACTIONS ON ELECTRON DEVICES, 2022, 69 (07) : 3966 - 3973
  • [19] Novel Design Approach of Extended Gate-On-Source Based Charge-Plasma Vertical-Nanowire TFET: Proposal and Extensive Analysis
    Kumar, Naveen
    Raman, Ashish
    IEEE TRANSACTIONS ON NANOTECHNOLOGY, 2020, 19 : 421 - 428
  • [20] Non-quasi-static physics-based circuit model of fully-depleted double-gate SOI MOSFET
    Jankovic, N
    Pesic, T
    SOLID-STATE ELECTRONICS, 2005, 49 (07) : 1086 - 1089