The scientific effort to control the interaction between light and matter has grown
exponentially in the last 2 decades. This growth has been aided by the development of …

Photonic metasurfaces, that is, two-dimensional arrangements of designed plasmonic or
dielectric resonant scatterers, have been established as a successful concept for controlling …

All-dielectric resonant nanophotonics is a rapidly developing research field driven by its
exceptional applications for creating low-loss nanoscale metadevices. The tight confinement …

Mie-resonant metaphotonics is a rapidly developing field that employs the physics of Mie
resonances to control light at the nanoscale. Mie resonances are excited in high-refractive …

The concentration and manipulation of light in the nanoscale range are fundamental to
nanophotonic research. Plasmonic nanoparticles can localize electromagnetic waves within …

Mie-resonant high-index dielectric nanoparticles and metasurfaces have been suggested as
a viable platform for enhancing both electric and magnetic dipole transitions of fluorescent …

Thanks to their enhanced and confined optical near-fields, broadband subwavelength
resonators have the ability to enhance the spontaneous emission rate and brightness of …

Light–matter interactions are often considered governed by the electric optical field only,
leaving aside the magnetic component of light. However, the magnetic part plays a …

Surface plasmon polaritons (SPPs), being localized at nanoscale and coherent with driving
field, are attractive for large‐scale surface nanopatterning. Under femtosecond laser …

Manipulation of magnetic dipole emission with resonant photonic nanostructures is of great
interest for both fundamental research and applications. However, obtaining selective …