Electronic Transport in Few-Layer Black Phosphorus

G. Long, Xiaolong Chen, Shuigang Xu, Ning Wang
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Abstract

Subjected to an adequately high magnetic field, Landau levels (LLs) form to alter the electronic transport behavior of a semiconductor. Especially in two-dimensional (2D) limit, quantum Hall effect sheds light on a variety of intrinsic properties of 2D electronic systems. With the raising quality of field effect transistors (FET) based on few-layer black phosphorus (BP), electronic transport in quantum limit (quantum transport) has been extensively studied in literatures. This chapter investigates the electronic transport in few-layer BP, especially in quantum limit. At the beginning of this chapter, a brief introduction to the background of LL, edge state, and quantum Hall effect will be delivered. We then examine the fabrication of high-quality FET based on BP and their electronic performances followed by exploring the magnetoresistances of these high-quality devices which reveal Shubnikov-de Haas (SdH) oscillations and quantum Hall effect in BP. Intrinsic parameters like effective mass, Landé g-factor, and so on are discussed based on quantum transport.
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少层黑磷中的电子输运
在足够高的磁场作用下,朗道能级(LLs)的形成改变了半导体的电子输运行为。特别是在二维极限下,量子霍尔效应揭示了二维电子系统的各种内在特性。随着基于少层黑磷(BP)的场效应晶体管(FET)质量的提高,量子极限下的电子输运(量子输运)得到了广泛的研究。本章研究了少层BP中的电子输运,特别是量子极限下的输运。在本章的开头,将简要介绍量子霍尔效应的背景、边缘态和量子霍尔效应。然后,我们研究了基于BP的高质量场效应管的制造及其电子性能,然后探索了这些高质量器件的磁电阻,揭示了BP中的舒布尼科夫-德哈斯(SdH)振荡和量子霍尔效应。在量子输运的基础上讨论了有效质量、land g因子等本征参数。
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