An integration and assembly strategy for efficient evaluation of the exchange correlation
term in relativistic density functional theory within two-component Kohn–Sham framework is …

We investigate collective spin excitations in graphene with proximity-induced spin-orbit
coupling (SOC) of the Rashba and valley-Zeeman types, as it is the case, eg, for graphene …

A combination of spin–orbit coupling and electron–electron interaction gives rise to a new
type of collective spin modes, which correspond to oscillations of magnetization even in the …

We study the interplay between collective electronic and lattice modes in polar metals in an
applied magnetic field aligned with the polar axis. Static spin-orbit coupling leads to the …

We review recent theoretical and experimental developments concerning collective spin
excitations in two-dimensional electron liquid (2DEL) systems, with particular emphasis on …

Compared with the conventional magnetic means (such as ferromagnetic contacts),
controlling a spin current by electrical methods could largely reduce the energy consumption …

Time-dependent spin-density functional theory (TD-SDFT) allows the theoretical description
of spin and magnetization dynamics in electronic systems from first principles. TD-SDFT …

In spin-polarized itinerant electron systems, collective spin-wave modes arise from
dynamical exchange and correlation (xc) effects. We consider here spin waves in doped …

Chiral-spin modes are collective excitations of a spin-orbit (SO) coupled system that lead to
resonances in many observables. Here we identify resonances in" cross-response", ie …

Magnonics—an emerging field of physics—is based on the collective excitations of ordered
spins called spin waves. These low‐energy excitations carry pure spin currents, paving the …