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 …

Analogs of fundamental physical phenomena can be used in two ways. One way consists in
reproducing specific aspects of the classical or quantum gravity of quantum fields in curved …

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 …

We argue that the Fermi–Hubbard Hamiltonian describing the physics of ultracold atoms on
optical lattices in the presence of artificial non-Abelian gauge fields is exactly equivalent to …

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

We find that, for a very specific shape of a monolayer graphene sample, a general relativistic-
like description of a back-ground spacetime for grapheneʼs conductivity electrons is very …

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 graphene, in its simplest form and settings, is a practical tabletop realization of
the analog of exotic quantum gravity scenarios, which are speculated to lead to certain …

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 …

This is a status report about the ongoing work on the realization of quantum field theory on
curved graphene spacetimes that uses Weyl symmetry. The programme is actively pursued …