A broad review of fundamental electronic properties of two-dimensional graphene with the
emphasis on density and temperature-dependent carrier transport in doped or gated …

The problem of electron-electron interactions in graphene is reviewed. Starting from the
screening of long-range interactions in these systems, the existence of an emerging Dirac …

Plasmons describe collective oscillations of electrons. They have a fundamental role in the
dynamic responses of electron systems and form the basis of research into optical …

The Schrödinger equation dictates that the propagation of nearly free electrons through a
weak periodic potential results in the opening of bandgaps near points of the reciprocal …

Two rich and vibrant fields of investigation—graphene physics and plasmonics—strongly
overlap. Not only does graphene possess intrinsic plasmons that are tunable and …

Recent theoretical proposals suggest that strain can be used to engineer graphene
electronic states through the creation of a pseudo–magnetic field. This effect is unique to …

The use of boron nitride (BN) as a substrate for graphene nanodevices has attracted much
interest since the recent report that BN greatly improves the mobility of charge carriers in …

A central question in the field of graphene-related research is how graphene behaves when
it is patterned at the nanometre scale with different edge geometries. A fundamental shape …

Electrostatic confinement of charge carriers in graphene is governed by Klein tunnelling, a
relativistic quantum process in which particle–hole transmutation leads to unusual …

Spectroscopic studies of electronic phenomena in graphene are reviewed. A variety of
methods and techniques are surveyed, from quasiparticle spectroscopies (tunneling …