The Dirac equation is solved for triangular and hexagonal graphene quantum dots for
different boundary conditions in the presence of a perpendicular magnetic field. We analyze …

The electronic and adsorption properties of chemically modified square hexagonal boron
nitride quantum dots are investigated using density functional theory calculations. The free …

The interplay of massive electrons with spin-orbit coupling in bulk graphene results in a spin-
valley dependent gap. Thus, a barrier with such properties can act as a filter, transmitting …

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 …

Edge states are ubiquitous for many condensed matter systems with multicomponent wave
functions. For example, edge states play a crucial role in transport in zigzag graphene …

In this paper, research has been carried out on the electronic properties of nanostructured
graphene. We focus our attention on trapped states of the proposed systems such as …

Using the tight-binding approximation we calculated the diamagnetic susceptibility of
graphene quantum dots (GQDs) of different geometrical shapes and characteristic sizes of 2 …

The magnetic-field dependence of the energy spectrum, wave function, binding energy, and
oscillator strength of exciton states confined in a circular graphene quantum dot (CGQD) is …

This thesis provides a comprehensive introduction to two active research directions within
the field of plasmonics:(i) nonclassical, or quantum, aspects of the plasmonic response; and …

Solving the Schrödinger problem for electrons in graphene subjected to both a stationary
magnetic field and a strong high-frequency electromagnetic wave (dressing field), we found …