Transverse scattering and generalized Kerker effects in all-dielectric Mie-resonant meta-optics
arXiv:1808.10708 · doi:10.1103/PhysRevLett.122.193905
Abstract
All-dielectric resonant nanophotonics lies at the heart of modern optics and nanotechnology due to the unique possibilities to control scattering of light from high-index dielectric nanoparticles and metasurfaces. One of the important concepts of dielectric Mie-resonant nanophotonics is associated with the Kerker effect that drives the unidirectional scattering of light from nanoantennas and Huygens' metasurfaces. Here we suggest and demonstrate experimentally a novel effect manifested in the nearly complete simultaneous suppression of both forward and backward scattered fields. This effect is governed by the Fano interference between an electric dipole and off-resonant quadrupoles, providing necessary phases and amplitudes of the scattered fields to achieve the transverse scattering. We extend this concept to dielectric metasurfaces that demonstrate zero reflection with transverse scattering and strong field enhancement for resonant light filtering, nonlinear effects, and sensing.
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- Symmetry analysis and multipole classification of eigenmodes in electromagnetic resonators for engineering their optical properties
- Invisibility and perfect absorption of all-dielectric metasurfaces originated from the transverse Kerker effect
- Multipolar theory of bianisotropic response
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- Transverse Kerker effect of localized electromagnetic sources
- Scattering asymmetry and second Kerker condition
- Intrinsic multipolar contents of nanoresonators for tailored scattering
- Wide-Angle Invisible Dielectric Metasurface Driven by Transverse Kerker Scattering
- Plasmonic lattice Kerker effect in UV-Vis spectral range
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- Self-hybridisation between interband transitions and Mie modes in dielectric nanoparticles
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