This review presents the state of the art in strain and ripple-induced effects on the electronic
and optical properties of graphene. It starts by providing the crystallographic description of …

This is an update of a previous review (Naumis et al 2017 Rep. Prog. Phys. 80 096501).
Experimental and theoretical advances for straining graphene and other metallic, insulating …

An overview of two-dimensional (2D) materials electronic properties is presented, including
research in multilayered heterostructures. An emphasis is made on simple models that …

In this chapter, we review the electronic properties of several two-dimensional (2D) material
families, including multilayered systems. Several 2D materials are covered: graphene …

Carbon nano-onions are a class of nanomaterials that can exhibit long electron spin
relaxation times at room temperature and thus hold promise as potential building blocks for …

The appearance of a pseudo-gap and the build up of states around the Dirac point for doped
graphene can be elucidated by an analysis of the density of states spectral moments. Such …

The electronic behavior in graphene under arbitrary uniaxial deformations, such as foldings
or flexural fields, is studied by including it in the Dirac equation pseudoelectromagnetic …

The spectral approach to infinite disordered crystals is applied to an Anderson-type
Hamiltonian to demonstrate the existence of extended states for nonzero disorder in 2D …

The transport properties of a disordered two-dimensional (2D) honeycomb lattice are
examined numerically using the spectral approach to the 2D percolation problem …

We show that electron states in disordered graphene, with an onsite potential that induces
inter-valley scattering, are localised for all energies at disorder as small as 1/6 of the band …