The electronic, thermoelectric and optical properties of Janus In2STe monolayer: A first-principles investigation

杰纳斯 单层 材料科学 热电效应 纳米技术 凝聚态物理 工程物理 物理 热力学
作者
Adil Marjaoui,Mohamed Ait Tamerd,B. Abraime,Achraf El Kasmi,Mustapha Diani,Mohamed Zanouni
出处
期刊:Thin Solid Films [Elsevier]
卷期号:759: 139471-139471 被引量:2
标识
DOI:10.1016/j.tsf.2022.139471
摘要

• First-principles insights into Janus In2STe monolayer. • The Janus In2STe monolayer is a semiconductor with a direct bandgap of 0.81 eV. • The Janus In2STe monolayer exhibited a great electronic figure of merit of 0.97. • The Janus In2STe monolayer has a large absorption coefficient in the visible region. In this present work, comprehensive investigations of the electronic structure, thermoelectric and optical properties of the Janus In 2 STe monolayer have been performed using density functional theory combined with the semi-classical Boltzmann transport theory. A direct bandgap semiconductor has been predicted for Janus In 2 STe monolayer. Compared to the InS and InTe monolayers, it is observed that the electrical conductivity was enhanced for the Janus In 2 STe monolayer, reaching 10.81 × 10 19 ( Ω − 1 m − 1 s − 1 ) with small p-type doping. At room temperature, our calculations predicted high Seebeck coefficients and electronic figure of merit for InS, InTe and Janus In 2 STe monolayers. Of interest, the Janus In 2 STe monolayer exhibited the highest Seebeck coefficient value of around 1110 μ V / K , with an electronic figure of merit of 0.97, indicating its high potential for thermoelectric applications. Moreover, we have addressed the optical properties such as dielectric constant, refractive index, reflectivity, extinction coefficient, and absorption coefficient, versus the energy for InS, InTe, and Janus In 2 STe monolayers. The predicted absorption coefficient in the visible region was found to be high with a value of 10 7 cm −1 , showing the future potential applications of InS, InTe, and Janus In 2 STe monolayers in optoelectronic and optical devices.

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