Recently, the search for topological states of matter has turned to non-Hermitian systems,
which exhibit a rich variety of unique properties without Hermitian counterparts. Lattices …

Recently, the topological physics in artificial crystals for classical waves has become an
emerging research area. In this Letter, we propose a unique bilayer design of sonic crystals …

We reveal unconventional edge states in a one-dimensional Stub lattice of coupled
waveguides with staggered hoppings. The edge states appear for the same values of …

The electronic structure of rare earths is an important topic (covered in chapter 8), and the
4felectron configuration determines their properties, including magnetic and optical …

We show that the energy-transport efficiency in a chain of two-level emitters can be
drastically enhanced by the presence of a photonic topological insulator (PTI). This is …

Using full 3D finite-element simulation and underlining Hamiltonian models, we demonstrate
reconfigurable photonic analogues of topological insulators on a regular lattice of tunable …

We explore the Floquet band structure and electronic transport in laser-illuminated bilayer
graphene ribbons. By using a bias voltage perpendicular to the graphene bilayer we show …

Dissipation is a common occurrence in real-world systems and is generally considered
detrimental to transport. In this paper, we examine the transport properties of a narrow …

Harnessing the unique features of topological materials for the development of a new
generation of topological based devices is a challenge of paramount importance. Using …

The electronic and optical properties of nonuniform bilayer graphene nanoribbons are worth
investigating as they exhibit rich magnetic quantization. Based on our numerical results …