Ferromagnetism in 2D materials has attracted tremendous interest from the scientific
community thanks to its potential for the design of magnetic materials with unique properties …

The rise of three-dimensional topological insulators as an attractive playground for the
observation and control of various spin-orbit effects has ushered in the field of topological …

Manipulating Gilbert damping is of critical importance in spintronic devices. Here, this work
reports the damping anisotropy of Heusler‐alloy Co3− xFexAl single crystalline thin films …

Abstract Spin–orbit coupling (SOC), the interaction between spin and orbital angular
momentum of electrons, is imperative to control magnetic properties of nonmagnet …

Two-dimensional transition metal dichalcogenides (TMDs) have drawn immense interest
due to their strong spin–orbit coupling and unique layer number dependence in response to …

Femtosecond laser-induced spin manipulation has fueled intense interest but understanding
its underlying microscopic mechanisms in complex systems such as nonmagnet …

Atomically thin graphene layers can act as a spin-sink material when adjacent to a
nanoscale magnetic surface. The enhancement in the extrinsic spin–orbit coupling (SOC) …

The quest for quantum phenomena in unconventional materials has led to the development
of myriad unique systems. Because of their unusual atomic-scale interface properties and …

Topological insulator (TI)/ferromagnet heterostructures hold immense application potential
for spin-orbitronic memory technologies owing to strong spin-orbit coupling of TIs combined …

Metal-organic molecular adsorbates on metallic surfaces offer the potential to both generate
materials for future (spin-) electronics applications as well as a better fundamental …