Anisotropic 2D materials are promising building blocks for future photonic and
optoelectronic devices due to their low structural symmetry and in‐plane optical anisotropy …

Transition metal di-tellurides (TMDTs) are a fascinating class of 2D materials with numerous
polytypes and properties that have recently emerged as a focal point in the electronics …

We report a combined experimental and computational study of the optical properties of
individual silicon telluride (Si2Te3) nanoplates. The p-type semiconductor Si2Te3 has a …

Through the DFT computations, the structural, vibrational, electronic, elastic, optical and
thermal (thermoelectric, thermodynamic) properties of the two-dimensional Rb2Te …

The optical and electronic properties of α-SiTe, β-SiTe, and RX-SiTe 2 are investigated. A
detailed analysis of electronic properties is done using standard density functional theory …

Layered IV–VI2 compounds often exist in a CdI2 structure. Using the evolution algorithm and
first-principles calculations, we predict a novel layered structure of silicon ditelluride (SiTe2) …

The high-pressure behavior of silicon telluride (Si2Te3), a two-dimensional (2D) layered
material, was investigated using synchrotron X-ray powder diffraction in a diamond anvil cell …

Silicon telluride (Si2Te3) is a two-dimensional semiconductor with unique structural
properties due to the size contrast between Si and Te atoms. A recent experiment shows that …

First-principles calculations are performed to investigate the electronic, optical, mechanical,
and phase transition properties of two-dimensional silicon telluride (Si2Te3) nanostructures …