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 …

In the last years there have been multiple proposals in nanophotonics to mimic topological
condensed matter systems. However, nanoparticles have degrees of freedom that atoms …

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

In the recent years, photonic Chern materials have attracted substantial interest as they
feature topological edge states that are robust against disorder, promising to realize defect …

We measure the local near-field spin in topological edge state waveguides that emulate the
quantum spin Hall effect. We reveal a highly structured spin density distribution that is not …

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

A profound insight into topological photonic systems will empower us to harness their
maximum potential and discover uncharted topological phenomena. For the square …

Designing a broadband, wide-angle, and high-efficient polarization converter with a simple
geometry remains challenging. This work proposes a simple and computationally …

Topological edge states are commonly excited by dipole sources or waveguide couplers. In
practice, however, such near-field excitations are unfavorable and the simplest way is to use …