In this paper, for the newly proposed two-dimensional (2D) Janus MoAZ3H (A= Si, or Ge; Z=
N, P, or As) monolayer (ML) materials, we theoretically explore the valleytronic and …

The manipulation of valley-dependent properties in two-dimensional (2D) materials is
intriguing for developing valleytronics. Using first-principles calculations, we explore valley …

Exploring spin-valley coupling in two-dimensional (2D) materials with strong spin-orbit
coupling (SOC) is of great significance for fundamental physics and practical applications …

Magnetism-driven nonrelativistic spin splittings (NRSS) are promising for highly efficient
spintronics applications. Although 2D centrosymmetric (in four-dimensional spacetime) …

We use ab initio calculations and theoretical analysis to investigate the influence of uniaxial
tensile strain on valley drifts and Berry curvatures in the monolayer MoSi 2 N 4, a …

Spin current generation from charge current in nonmagnetic materials promises an energy-
efficient scheme for manipulating magnetization in spintronic devices. In some asymmetric …

Inspired by recent studies on MoS2 and MoSi2N4, we propose and investigate Janus
MoBXY2 (X= N, P; Y= S, Se, Te) monolayers, which exhibit robust dynamic and thermal …

With the recent synthesis of two-dimensional (2D) MoSi 2 N 4, the 2D material family with the
general formula MA 2 Z 4 has become increasingly popular. However, their topological …

The manipulation of the valley degree of freedom has attracted increasing attention in both
fundamental scientific research and emerging applications. Here, we employ first-principles …

Antiferromagnetism-induced spin splittings--even without atomic spin-orbit coupling--are
promising for highly efficient spintronics applications. Although two-dimensional (2D) …