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 …

Graphene, being essentially a surface, can borrow some properties of an insulating
substrate (such as exchange or spin-orbit couplings) while still preserving a great degree of …

Graphene, the first isolated two-dimensional atomic crystal, is about to pass its 20th year.
The last decade has been a critical period for graphene to gradually move from the …

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 …

We present a combined DFT and model Hamiltonian analysis of spin-orbit coupling in
graphene induced by copper adatoms in the bridge and top positions, representing isolated …

We present a theoretical study of resonance characteristics in graphene from adatoms with s
or pz character binding in top, bridge, and hollow positions. The adatoms are described by …

Single-walled carbon nanotubes (SWCNTs) containing sp 3 defects are a promising class of
optoelectronic materials with bright photoluminescence and demonstrated single-photon …

Graphene-based van der Waals heterostructures take advantage of tailoring spin-orbit
coupling (SOC) in the graphene layer by proximity effect. At long-wavelength--saddled by …

We study the effect of driving a two-dimensional honeycomb system out of equilibrium using
an elliptically polarized light as a time-dependent perturbation. In particular, we try to …