Two-dimensional van der Waals electrical contact to monolayer MoSiN
arXiv:2010.05815 · doi:10.1063/5.0033241
Abstract
Two-dimensional (2D) MoSiN monolayer is an emerging class of air-stable 2D semiconductor possessing exceptional electrical and mechanical properties. Despite intensive recent research efforts devoted to uncover the material properties of MoSiN, the physics of electrical contacts to MoSiN remains largely unexplored thus far. In this work, we study the van der Waals heterostructures composed of MoSiN contacted by graphene and NbS monolayers using first-principle density functional theory calculations. We show that the MoSiN/NbS contact exhibits an ultralow Schottky barrier height (SBH), which is beneficial for nanoelectronics applications. For MoSiN/graphene contact, the SBH can be modulated via interlayer distance or via external electric fields, thus opening up an opportunity for reconfigurable and tunable nanoelectronic devices. Our findings provide insights on the physics of 2D electrical contact to MoSiN, and shall offer a critical first step towards the design of high-performance electrical contacts to MoSiN-based 2D nanodevices.
5 pages, 5 figures (accepted version, to appear in Applied Physics Letters)
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