Modelling of transport properties of graphene field-effect transistor for sensor application

Geoffrey Ijeomah, F. Samsuri, M. Zawawi
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Abstract

A dual-gated ultra-thin graphene field effect transistor (GFET) suitable for electronic sensing application is modelled. The applied simulation approach reproduces accurately the transport properties of the GFET characteristics and enables investigation of the influence of the different physical, biological and chemical factors. The simulation readouts and additional charges in the system are interpreted in the form of current-voltage characteristics and shift in Dirac peaks. These features could be extracted to predict the sensing mechanism of the GFET.
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传感器应用中石墨烯场效应晶体管传输特性的建模
建立了适用于电子传感应用的双栅极超薄石墨烯场效应晶体管(GFET)的模型。应用模拟方法准确再现了GFET特性的传输特性,并能够研究不同物理、生物和化学因素的影响。系统中的模拟读数和附加电荷以电流-电压特性和狄拉克峰值偏移的形式进行解释。可以提取这些特征来预测GFET的传感机制。
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