Topological nanophotonics is a new avenue for exploring nanoscale systems from visible to
THz frequencies, with unprecedented control. By embracing their complexity and fully …

We study the topological properties of a Kagome plasmonic metasurface, modeled with a
coupled dipole method that naturally includes retarded long range interactions. We …

We study the interplay between disorder and light-matter coupling by considering a
disordered one-dimensional chain of lossy dipoles coupled to a multimode optical cavity …

Higher-order topological states in plasmonic metasurfaces are of great importance in
practice for their tight confinements and high field enhancements, providing many promising …

A dimerized chain of dipolar emitters strongly coupled to a multimode optical waveguide
cavity is studied. By integrating out the photonic degrees of freedom of the cavity, the system …

Chiral, topologically protected, photonic surface states can be found at the boundary
between gyrotropic photonic crystals where a changing magnetic field induces different …

Kagome lattices can be considered hexagonal lattices with a three-nanoparticle unit cell
whose symmetry may lead to the formation of higher-order topological states. This work …

Topological optical states are promising in waveguiding, sensing, and information
processing which are localized over the boundaries and robustly protected by the band …

Photonic nanoparticle arrays that exhibit topologically nontrivial phases are often
established by arranging nanoparticles in a lattice configuration in analog to the Su …

We study the topological photonic states in one-dimensional lattices analog to the Su-
Schrieffer-Heeger model beyond the dipole approximation. The electromagnetic resonances …