The analysis of the electronic properties of strained or lattice deformed graphene combines
ideas from classical condensed matter physics, soft matter, and geometrical aspects of …

The concept of torsion in geometry, although known for a long time, has not gained
considerable attention from the physics community until relatively recently, due to its diverse …

We are interested in a fermion-antifermion pair in magnetized 2+ 1 dimensional optical
background with constant negative curvature. One implements this background for obtaining …

The solutions of many issues, of the ongoing efforts to make deformed graphene a tabletop
quantum field theory in curved spacetimes, are presented. A detailed explanation of the …

It was shown that the particle distribution detected by a uniformly accelerated observer in the
inertial vacuum (Unruh effect) deviates from the pure Planckian spectrum when considering …

We investigate the structure of the gravity-induced generalized uncertainty principle in three
dimensions. The subtleties of lower-dimensional gravity, and its important differences …

Flavor mixing of quantum fields was found to be responsible for the breakdown of the
thermality of Unruh effect. Recently, this result was revisited in the context of nonextensive …

We propose to simulate a Dirac field near an event horizon using ultracold atoms in an
optical lattice. Such a quantum simulator allows for the observation of the celebrated Unruh …

We propose a new model which simulates the motion of free electrons in graphene by the
evolution of strings on manifolds. In this model, molecules which constitute sheets of …

We show that a generalized Dirac structure survives beyond the linear regime of the low-
energy dispersion relations of graphene. A generalized uncertainty principle of the kind …