付谷风:Anisotropic Transport on Monolayer and Multilayer Phosphorene in the Presence of an Electric Field论文

付谷风:Anisotropic Transport on Monolayer and Multilayer Phosphorene in the Presence of an Electric Field论文

本文主要研究内容

作者付谷风,程芳(2019)在《Anisotropic Transport on Monolayer and Multilayer Phosphorene in the Presence of an Electric Field》一文中研究指出:We demonstrate theoretically the anisotropic quantum transport of electrons through an electric field on monolayer and multilayer phosphorene. Using the long-wavelength Hamiltonian with continuum approximation, we find that the transmission probability for transport through an electric field is an oscillating function of incident angle, electric field intensity, as well as the incident energy of electrons. By tuning the electric field intensity and incident angle, the channels can be transited from opaque to transparent. The conductance through the quantum waveguides depends sensitively on the transport direction because of the anisotropic effective mass, and the anisotropy of the conductance can be tuned by the electric field intensity and the number of layers. These behaviors provide us an efficient way to control the transport of phosphorene-based microstructures.

Abstract

We demonstrate theoretically the anisotropic quantum transport of electrons through an electric field on monolayer and multilayer phosphorene. Using the long-wavelength Hamiltonian with continuum approximation, we find that the transmission probability for transport through an electric field is an oscillating function of incident angle, electric field intensity, as well as the incident energy of electrons. By tuning the electric field intensity and incident angle, the channels can be transited from opaque to transparent. The conductance through the quantum waveguides depends sensitively on the transport direction because of the anisotropic effective mass, and the anisotropy of the conductance can be tuned by the electric field intensity and the number of layers. These behaviors provide us an efficient way to control the transport of phosphorene-based microstructures.

论文参考文献

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  • 论文详细介绍

    论文作者分别是来自Chinese Physics Letters的付谷风,程芳,发表于刊物Chinese Physics Letters2019年05期论文,是一篇关于,Chinese Physics Letters2019年05期论文的文章。本文可供学术参考使用,各位学者可以免费参考阅读下载,文章观点不代表本站观点,资料来自Chinese Physics Letters2019年05期论文网站,若本站收录的文献无意侵犯了您的著作版权,请联系我们删除。

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