Spin‐orbit coupling refers to the relativistic interaction between the spin and orbital motions
of electrons. This interaction leads to numerous intriguing phenomena, including spin‐orbit …

Spintronics has been extensively explored over the past decades, focusing primarily on the
spin characteristic of the electron, while the orbital feature of the electron has been …

Orbitronic devices operate by manipulating orbitally polarized currents. Recent studies have
shown that these orbital currents can be excited by femtosecond laser pulses in a …

Previous research has demonstrated the spin-orbit torque (SOT) switching of M n 3 Sn in
configuration I, where the spin polarization σ resides within the kagome plane. However, this …

The ventral visual pathway (VVP) of the human brain efficiently implements target
recognition by employing a deep hierarchical structure to build complex visual concepts …

The orbital Hall effect originating from light materials with weak spin‐orbit coupling, has
attracted considerable interest in spintronic applications. Recent studies demonstrate that …

Due to its nontrivial topological state, a magnetic Weyl semimetal often exhibits exotic
transport properties that are important for both fundamental physics and potential spintronics …

The free-field switching of the perpendicular magnetization by the out-of-plane polarized
spin current induced spin-orbit torque makes it a promising technology for develo** high …

A Rashba spin-splitting state with spin-momentum locking enables the charge–spin
interconversion known as the Rashba effect, induced by the interplay of inversion symmetry …

Orbital Hall effect (OHE) in light metal materials has attracted significant attention due to its
potential applications in innovative orbitronic devices. Here, the OHE in titanium film is …