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 …

The possibility of inducing a sizeable energy gap in the electronic structure of a graphene
layer is still one of the biggest and most debated challenges in graphene electronics …

Among the family of currently known promising quasi-two-dimensional (2D) materials, the
authors of this survey concentrate on the problem of functionalization of the graphene-and …

Electron optics is the systematic use of electromagnetic (EM) fields to control electron
motions. In graphene, strain induces pseudo-electromagnetic fields to guide electron …

We derive the low-energy Hamiltonian for a honeycomb lattice with anisotropy in the
hopping parameters. Taking the reported Dirac Hamiltonian for the anisotropic honeycomb …

We investigate the low-energy continuum limit theory for electrons in a graphene sheet
under strain. We use the quantum field theory in curved spaces to analyze the effect of the …

We investigate the electromechanical coupling in single-layer 2d materials. For non-Bravais
lattices, we find important corrections to the standard macroscopic strain-microscopic atomic …

The study deals with electronic properties of uniaxially stressed mono-and multi-layer
graphene sheets with various kinds of imperfection: point defects modelled as resonant …

The paper combines two theoretical approaches–the method of grazing dynamical
diffraction (which allows performing the nondestructive structural diagnostics of defects in …

We study numerically a role of the uniaxial tensile strains and disordered defects in their
impact on electronic density of states (DOS) in graphene exposed to an external magnetic …