The discovery of an ever-increasing family of atomic layered magnetic materials, together
with the already established vast catalogue of strong spin–orbit coupling and topological …

The ability of spintronic devices to utilize an electric current for manipulating the
magnetization has resulted in large-scale developments, such as magnetic random access …

Symmetry plays a central role in determining the polarization of spin currents induced by
electric fields. It also influences how these spin currents generate spin-transfer torques in …

The development of spintronic devices based on spin–orbit torque requires the electrical-
current-driven field-free switching of magnetization in materials with perpendicular magnetic …

The key challenge of spin–orbit torque applications lies in exploring an excellent spin
source capable of generating out-of-plane spins while exhibiting high spin Hall conductivity …

The Hall effect occurs only in systems with broken time-reversal symmetry, such as materials
under an external magnetic field in the ordinary Hall effect and magnetic materials in the …

The electrical Hall effect is the production, upon the application of an electric field, of a
transverse voltage under an out-of-plane magnetic field. Studies of the Hall effect have led to …

Magnetic insulators are a key resource for next-generation spintronic and topological
devices. The family of layered metal halides promises varied magnetic states, including …

The unique electronic properties of topological quantum materials, such as protected
surface states and exotic quasiparticles, can provide an out-of-plane spin-polarized current …

Cubic materials host high crystal symmetry and hence are not expected to support
anisotropy in transport phenomena. In contrast to this common expectation, here we report …