Litcius/Paper detail

Giant in-plane optical and electronic anisotropy of tellurene: a quantitative exploration

Zhengfeng Guo, Honggang Gu, Mingsheng Fang, Lei Ye, Shiyuan Liu

2022Nanoscale24 citationsDOI

Abstract

> 0.4), are accurately determined by imaging MMSE to quantitatively evaluate the in-plane optical anisotropy of tellurene. With density functional theory (DFT), tellurene's optical anisotropy is connected to its low-symmetry lattice structure with electrical anisotropy (including the anisotropic effective mass, partial charge density, and carrier mobility), leading to anisotropic electric polarization and ultimately optical anisotropy. This work provides a general and quantitative way to explore the optical anisotropy and also helps to comprehend the connection between the lattice structure and the optical anisotropy of tellurene and even other emerging low-symmetry materials, which will further promote their polarization-sensitive optical applications.

Topics & Concepts

AnisotropyMaterials sciencePlane (geometry)Optical anisotropyCondensed matter physicsNanotechnologyPhysicsOpticsGeometryMathematics2D Materials and ApplicationsChalcogenide Semiconductor Thin FilmsBoron and Carbon Nanomaterials Research