We study the electronic band structures of massless Dirac fermions in symmetrical graphene superlattice with cells of three regions. opening gaps and additional Dirac points. Finally, we inspect the potential effect on minibands, the anisotropy of group velocity and the energy bands contours near Dirac points. We also discuss the evolution of gap edges and cutoff region near the vertical Dirac points
The electronic band structure of an epitaxial graphene superlattice, generated by intercalating a mo...
We show that, if graphene is subjected to the potential from an external superlattice, a band gap de...
We analyze the energy spectrum of graphene in the presence of spin-orbit coupling and a one-dimensio...
We study the electronic and transport properties of a graphene-based superlattice theoretically by u...
The electronic structure of a graphene superlattice composed by two periodic regions with different ...
The general properties of long wavelength triangular graphene superlattices are studied. It is shown...
The general properties of long wavelength triangular graphene superlattices are studied. It is shown...
The general properties of long wavelength triangular graphene superlattices are studied. It is shown...
We study the band structure of graphene’s Dirac-Weyl quasiparticles in a one-dimensional magnetic su...
We study the band structure of graphene\u2019s Dirac-Weyl quasiparticles in a one-dimensional magnet...
We formulate a low energy effective Hamiltonian to study superlattices in bilayer graphene (BLG) usi...
In this work we study theoretically the electronic properties of a sheet of graphene grown on a peri...
We study the graphene band-gap engineering by introducing different defects, namely the defects brea...
Graphene superlattices have attracted much research interest in the last years, since it is possible...
We investigate graphene superlattices of nitrogen and boron substitutional defects. Using symmetry a...
The electronic band structure of an epitaxial graphene superlattice, generated by intercalating a mo...
We show that, if graphene is subjected to the potential from an external superlattice, a band gap de...
We analyze the energy spectrum of graphene in the presence of spin-orbit coupling and a one-dimensio...
We study the electronic and transport properties of a graphene-based superlattice theoretically by u...
The electronic structure of a graphene superlattice composed by two periodic regions with different ...
The general properties of long wavelength triangular graphene superlattices are studied. It is shown...
The general properties of long wavelength triangular graphene superlattices are studied. It is shown...
The general properties of long wavelength triangular graphene superlattices are studied. It is shown...
We study the band structure of graphene’s Dirac-Weyl quasiparticles in a one-dimensional magnetic su...
We study the band structure of graphene\u2019s Dirac-Weyl quasiparticles in a one-dimensional magnet...
We formulate a low energy effective Hamiltonian to study superlattices in bilayer graphene (BLG) usi...
In this work we study theoretically the electronic properties of a sheet of graphene grown on a peri...
We study the graphene band-gap engineering by introducing different defects, namely the defects brea...
Graphene superlattices have attracted much research interest in the last years, since it is possible...
We investigate graphene superlattices of nitrogen and boron substitutional defects. Using symmetry a...
The electronic band structure of an epitaxial graphene superlattice, generated by intercalating a mo...
We show that, if graphene is subjected to the potential from an external superlattice, a band gap de...
We analyze the energy spectrum of graphene in the presence of spin-orbit coupling and a one-dimensio...