Despite the unprecedented downscaling of CMOS integrated circuits, memory-intensive
machine learning and artificial intelligence applications are limited by data conversion …

Significant progress has been made in answering fundamental questions about how and,
more importantly, on what time scales interactions between electrons, spins, and phonons …

We review one of the most versatile theoretical approaches to the study of time-dependent
correlated quantum transport in nano-systems: the non-equilibrium Green's function (NEGF) …

Spintronics is based on the electrical manipulation of magnetic order through current-
induced spin torques. In collinear antiferromagnets with perpendicular magnetic anisotropy …

The entanglement of many localized spins (LSs) within solid magnetic materials is a topic of
great basic and applied interest, particularly after becoming amenable to experimental …

Spin-wave excitations of magnetic moments (or magnons) can transport spin angular
momentum in insulating magnetic materials. This property distinguishes magnonic devices …

Magnetic bit writing by short-wave magnons without conversion to the electrical domain is
expected to be a game-changer for in-memory computing architectures. Recently, the …

We analyze theoretically the origin of the spin Nernst and thermal Hall effects in FePS 3 as a
realization of a two-dimensional antiferromagnet (2D AFM). We find that a strong …

It is well-known that operators of localized spins within a magnetic material satisfy neither
fermionic nor bosonic commutation relations. Thus, to construct diagrammatic many-body …

We introduce the time-dependent density matrix renormalization group (tDMRG) as a
solution to a long-standing problem in spintronics—how to describe spin-transfer torque …