Graphene Based Tunnel Field Effect Transistor for RF Applications

Graphene has been identified as one of the convincing materials in the field of device modeling and research. Due to its magnificent electronic properties, Graphene has been extensively studied and analysed as a promising material for RF applications. As device dimensions are scaling down, the perfo...

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Published inProgress in Electromagnetics Research Symposium pp. 256 - 259
Main Authors Vijh, Manjula, Gupta, R. S., Pandey, Sujata
Format Conference Proceeding
LanguageEnglish
Published IEEE 01.06.2019
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Abstract Graphene has been identified as one of the convincing materials in the field of device modeling and research. Due to its magnificent electronic properties, Graphene has been extensively studied and analysed as a promising material for RF applications. As device dimensions are scaling down, the performance of conventional Metal Oxide Semiconductor Field Effect Transistor is limited due to short channel effects. A new class of devices called Tunnel Field Effect Transistors have been recognised which have surpassed conventional MOSFETs. Tunnel FETs work on the principle of band to band tunneling and have been a subject of research in the field of semiconductors. Different design geometries and different channel materials have been explored by researchers to enhance the performance of the device. Graphene has been identified as a promising channel material in the design of tunnel field effect transistors. A Graphene TFET has been simulated and analysed in this work for its use in RF applications. The device is studied for various electrical characteristics and small signal parameters are obtained. Cut-off frequency of the device has been calculated. It has been observed that Graphene based Tunnel FETs prove to be excellent candidates for high frequency applications.
AbstractList Graphene has been identified as one of the convincing materials in the field of device modeling and research. Due to its magnificent electronic properties, Graphene has been extensively studied and analysed as a promising material for RF applications. As device dimensions are scaling down, the performance of conventional Metal Oxide Semiconductor Field Effect Transistor is limited due to short channel effects. A new class of devices called Tunnel Field Effect Transistors have been recognised which have surpassed conventional MOSFETs. Tunnel FETs work on the principle of band to band tunneling and have been a subject of research in the field of semiconductors. Different design geometries and different channel materials have been explored by researchers to enhance the performance of the device. Graphene has been identified as a promising channel material in the design of tunnel field effect transistors. A Graphene TFET has been simulated and analysed in this work for its use in RF applications. The device is studied for various electrical characteristics and small signal parameters are obtained. Cut-off frequency of the device has been calculated. It has been observed that Graphene based Tunnel FETs prove to be excellent candidates for high frequency applications.
Author Pandey, Sujata
Vijh, Manjula
Gupta, R. S.
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  fullname: Pandey, Sujata
  organization: Amity School of Engineering and Technology,Uttar Pradesh,India
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Snippet Graphene has been identified as one of the convincing materials in the field of device modeling and research. Due to its magnificent electronic properties,...
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StartPage 256
SubjectTerms Field effect transistors
Graphene
Logic gates
Performance evaluation
Radio frequency
Springs
Title Graphene Based Tunnel Field Effect Transistor for RF Applications
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