Metasurfaces as optically thin composite layers can be modeled as electric and magnetic
surface current sheets flowing in the layer volume in the metasurface plane. In the most …

Based on an analytic approach, we present a theoretical review on the absorption,
scattering, and extinction of both dipole scatterers and regular arrays composed of such …

Graded metasurfaces exploit the local momentum imparted by an impedance gradient to
mold the impinging wave front. This approach suffers from fundamental limits on the overall …

Nonuniform metasurfaces (electrically thin composite layers) can be used for shaping
refracted and reflected electromagnetic waves. However, known design approaches based …

The multipole expansion is a key tool in the study of light–matter interactions. All the
information about the radiation of and coupling to electromagnetic fields of a given charge …

This tutorial provides an intuitive and concrete description of the phenomena of
electromagnetic nonreciprocity that will be useful for readers with engineering or physics …

We review the current trends in the design of Huygens' metasurfaces (HMSs), which are
planar arrays of balanced electric and magnetic polarizable particles (meta-atoms) of …

We present a general theory for designing realistic omega-type bianisotropic metasurfaces
(O-BMSs), unlocking their full potential for molding electromagnetic fields. These …

A nanoantenna with balanced electric and magnetic dipole moments, known as the first
Kerker condition, exhibits a directive radiation pattern with zero backscattering. In principle …

We present a novel method to design a conventional Fabry–Perot (FP) antenna but with low
scattering. Combining a coding metasurface and an FP antenna together could effectively …