In the presence of a circularly polarized mid-infrared radiation graphene develops
dynamical band gaps in its quasienergy band structure and becomes a Floquet insulator …

Graphene is the strongest material ever studied and can be an efficient substitute for silicon.
This six-volume handbook focuses on fabrication methods, nanostructure and atomic …

We demonstrated theoretically that the renormalization of the electron energy spectrum near
the Dirac point of graphene by a strong high-frequency electromagnetic field (dressing field) …

Electromagnetic driving in a honeycomb lattice can induce gaps and topological edge states
with a structure of increasing complexity as the frequency of the driving lowers. While the …

We explore the Floquet band structure and electronic transport in laser-illuminated bilayer
graphene ribbons. By using a bias voltage perpendicular to the graphene bilayer we show …

The response of electrons under linearly polarized light in Dirac materials as borophene or
graphene is analyzed in a continuous wave regime for an arbitrary intense field. Using a …

This work investigates the structural stability, electronic and transport properties of zigzag
boron nitride nanoribbons (ZBNNRs) with hydrogenation/fluorination by using density …

Femtosecond laser processing was employed in order to tune various properties of
graphene oxide (GO) films. Raman spectroscopy showed the effects of laser irradiation on …

Harnessing the unique features of topological materials for the development of a new
generation of topological based devices is a challenge of paramount importance. Using …

Topological states require the presence of extended bulk states, as usually found in the
picture of energy bands and topological states bridging the bulk gaps. But in driven systems …