The optical anapole state resulting from interference of the electric and toroidal moments is
of much interest due to its nonradiating nature. Interference of optical modes supported by a …

Toroidal electromagnetic pulses have been recently reported as nontransverse, space-time
nonseparable topological excitations of free space. However, their propagation dynamics …

Structured lights, including beams carrying spin and orbital angular momenta, radially and
azimuthally polarized vector beams, as well as spatiotemporal optical vortices, have …

The electromagnetic fields distributed on the surface region of the nanostructure is very
important to improve the performance of the sensor. Here, we proposed a highly sensitive …

A toroidal dipole is a fundamental electromagnetic excitation independent of electric and
magnetic dipoles. At present, a great deal of attention has been paid to the characteristics …

Precise optical control at the nanoscale is crucial for advancing photonic devices and
sensing technologies. Herein, we theoretically introduce what we believe to be a novel …

Significant attention has been devoted to realizing non-radiating states (popularly known as
anapole states) in several systems due to the strong localization of electromagnetic fields …

Nanoparticle clusters provide new degrees of freedom for light control due to their mutual
interaction compared with an individual one. Here, the authors demonstrate theoretically …

Dielectric nanostructures exhibit low-loss electrical and magnetic resonance, making them
ideal for quantum information processing. In this study, the periodic double-groove silicon …

Controlling light scattering by nanoparticles is fundamentally important for the understanding
and the control of light with photonic nanostructures, as well as for nanoparticle scattering …