Conventional Chern insulators are two-dimensional periodic structures that support
unidirectional edge states at the boundary, while the wave propagation in the bulk regions is …

Nonlinear light–matter interactions are typically enhanced by increasing the local field and
its interaction time with matter. Conventional methods to achieve these goals are based on …

Light propagates symmetrically in opposite directions in most natural and artificial materials.
This fact, a consequence of the Lorentz reciprocity principle, has tremendous implications for …

We theoretically demonstrate that a system formed by a drift-current biased graphene sheet
on a silicon carbide substrate enables loss compensation and plasmon amplification. The …

We theoretically investigate the role of chiral-transitions in the quantum friction force that acts
on a two-level atom that moves with relative velocity v parallel to a planar metallic surface …

Probing optical excitations with high resolution is important for understanding their dynamics
and controlling their interaction with other photonic elements. This can be done using state …

We analyze the probe response at strong and weak coupling regimes and group delay of a
probe field in a cavity optomechanical system. In present system is coupled with a graphene …

We explore the conservation of energy and momentum by solving Maxwell's equations for a
charged particle passing through a single conductive sheet. By using a fully relativistic …

Recent studies have shown that non-equilibrium optical systems under static electric fields
offer a pathway to realize chiral gain, where the non-Hermitian response of a material is …

Cherenkov radiation has been extensively explored in a large variety of media; however, its
characteristics in a medium showing both magnetoelectric and anisotropy effect are not …