We present a systematic study of the energy spectra of graphene quantum rings having
different geometries and edge types in the presence of a perpendicular magnetic field …

Propagation of an electron wave packet through a quantum point contact (QPC) defined by
electrostatic gates in bilayer graphene is investigated. The gates provide a bias between the …

Nonuniform elastic strain is known to induce pseudo-Landau levels in Dirac materials. But
these pseudo-Landau levels are hardly resolvable in an analytic fashion when the strain is …

We study electronic transport in monolayer and bilayer graphene with single and many short-
range defects focusing on the role of edge termination (zigzag versus armchair). Within the …

A pseudomagnetic field kink can be realized along a graphene nanoribbon using strain
engineering. Electron transport along this kink is governed by snake states that are …

Graphene subject to high levels of shear strain leads to strong pseudo-magnetic fields
resulting in the emergence of pseudo-Landau levels. Here we show that, with modest levels …

We investigate the effect of long-range impurity potentials on the persistent current of
graphene quantum rings in the presence of an uniform perpendicular magnetic field. The …

Graphene-based optoelectronic devices have recently attracted much attention for the next-
generation electronic-photonic integrated circuits. However, it remains elusive whether it is …

Within the position-dependent translation operator formalism for quantum systems, we
obtain analytical expressions for the eigenstates and the Landau level spectrum of Dirac …

In this work we investigate the ballistic transport of electrons through three-terminal
graphene-based devices. The system consists of a Y-shaped junction formed by three …