Since its discovery, graphene has been a promising material for spintronics: its low spin–
orbit coupling, negligible hyperfine interaction, and high electron mobility are obvious …

In recent years, predictive computational modeling has become a cornerstone for the study
of fundamental electronic, optical, and thermal properties in complex forms of condensed …

We present a detailed theoretical study of effective spin-orbit coupling (SOC) Hamiltonians
for graphene-based systems, covering global effects such as proximity to substrates and …

We show that H-phase transition metal dichalcogenide (TMD) monolayers, such as MoS 2
and WSe 2, are orbital Hall insulators. They present very large orbital Hall conductivity …

We report on a theoretical study of the spin Hall Effect (SHE) and weak antilocalization
(WAL) in graphene/transition metal dichalcogenide (TMDC) heterostructures, computed …

We investigate a generalized multiorbital tight-binding model on a triangular lattice, a system
prevalent in a wide range of two-dimensional materials and particularly relevant for …

Recent experiments reporting an unexpectedly large spin Hall effect (SHE) in graphene
decorated with adatoms have raised a fierce controversy. We apply numerically exact Kubo …

Detailed analyses of the spin and orbital conductivities are performed for different
topological phases of certain classes of two-dimensional multiorbital materials. Our …

We study spin transport through graphene-like substrates in the presence of one or several,
locally induced spin–orbit coupling (SOC) terms resulting from periodically placed strips, on …

The discovery of the integer quantum Hall effect in the early eighties of the last century, with
highly precise quantization values for the Hall conductance in multiples of e 2/h, has been …