Modeling of graphene nanoscroll conductance with quantum capacitance effect

M. Khaledian, Razali Ismail
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引用次数: 1

Abstract

Graphene nanoscrolls (GNSs) as a new category of quasi one dimensional belong to the carbon-based nanomaterials, which have recently captivated the attention of researchers. The latest discoveries of exceptional structural and electronic properties of GNSs like, high mobility, controllable band gap and tunable core size has become a new stimuli for nanotechnology researchers. Fundamental descriptions about structure and electronic properties of GNSs have been investigated in order to apply them in nanoelectronic applications like nanotransistors and nanosensors as a new semiconducting material. By utilizing a novel approach, the analytical conductance model (G) of GNSs with the effect of Hall quantum is derived. This letter introduces a geometrydependent model to analyze the conductance of GNSs. The conductance modeling of GNS in parabolic part of the band structure which displays minimum conductance near the charge neutrality point is calculated. Subsequently, the effect of temperature and physical parameters on GNS conductivity is studied. This study emphasized that the GNS is a promising candidate for new generation of nanoelectronic devices.
基于量子电容效应的石墨烯纳米卷电导建模
石墨烯纳米卷作为一类准一维碳基纳米材料,近年来引起了研究人员的广泛关注。高迁移率、带隙可控、磁芯尺寸可调等特殊结构和电子特性的最新发现,已成为纳米技术研究的新热点。为了将其作为一种新型半导体材料应用于纳米晶体管和纳米传感器等纳米电子领域,对GNSs的结构和电子特性进行了基本描述。利用一种新的方法,推导了具有霍尔量子效应的gps的解析电导模型。本文介绍了一个几何相关模型来分析gps的电导。计算了在电荷中性点附近电导最小的带结构抛物线部分GNS的电导模型。随后,研究了温度和物理参数对GNS电导率的影响。该研究强调了GNS是新一代纳米电子器件的理想候选材料。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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