Two-dimensional (2D) ferroics, namely ferroelectric, ferromagnetic, and ferroelastic
materials, are attracting rising interest due to their fascinating physical properties and …

The quantum geometry has significant consequences in determining transport and optical
properties in quantum materials. Here, we use a semiclassical formalism coupled with …

Symmetry breaking in quantum materials is of great importance and can lead to non-
reciprocal charge transport. Topological insulators provide a unique platform to study non …

Spin–orbit coupling (SOC) plays a crucial role in controlling the spin–charge conversion
efficiency, spin torque, and complex magnetic spin structures. In this study, we investigate …

The Berry curvature dipole (BCD) induced nonlinear Hall effect can appear in a material with
time-reversal symmetry but breaking space-inversion symmetry. Meanwhile, a two …

Most methods for regulating physical and chemical properties of materials involve the
breaking and formation of chemical bonds, which inevitably change local structures. Two …

Two-dimensional (2D) heterostructures with ferromagnetism and ferroelectricity provide a
promising avenue to miniaturize the device size, increase computational power, and reduce …

Symmetry breaking in quantum materials is of great importance and leads to novel
nonreciprocal charge transport. The topological insulator system provides a unique platform …

We have investigated the electrical transport properties of nanodevices fabricated from
exfoliated flakes of two-dimensional metallic ferromagnets Fe 3 GeTe 2 (FGT) and Fe 5 Ge 2 …

Electrical readout of magnetic states is a key to realize novel spintronics devices for efficient
computing and data storage. Unidirectional magnetoresistance (UMR) in bilayer systems …