We study numerically the possibility of controlling light properties by means of an external magnetic field. Considerable changes in the shape, value, and spectral position of the magneto-optical response are demonstrated in Voigt geometry for the transmitted light depending on the parameters of the magnetophotonic metasurface made up of nickel/silicon nanoparticles. The spectral overlapping of the fundamental magnetic and electric dipole Mie resonances leads to interference with a strong modification of phase relations, which manifests itself through an enhanced magneto-optical signal
All-dielectric nanostructures provide a unique low-loss platform for efficiently increasing light-ma...
A major challenge facing plasmon nanophotonics is the poor dynamic tunability. A functional nanophot...
Spherical silicon nanoparticles with sizes of a few hundreds of nanometers represent a unique optica...
The multifold enhancement of the Faraday effect induced by magnetic dipole and Voigt effect amplific...
We demonstrate both experimentally and numerically multifold enhancement of magneto-optical effects ...
International audienceAll-dielectric metasurfaces have been attracting much attention. Low optical l...
Control of light by an external magnetic field is one of the important methods for modulation of its...
The advantages of gyrotopic materials are combined with the field of high-index metamaterials. The e...
This document is the Accepted Manuscript version of a Published Work that appeared in final form in ...
peer reviewedWe present a novel concept of a magnetically tunable plasmonic crystal based on the exc...
The spectrally controllable enhancement of the transverse magneto-optical Kerr effect is realized in...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Here I discuss the possibilities given by combining magnetism and plasmonics to gain control over po...
We present a novel concept of a magnetically tunable plasmonic crystal based on the excitation of Fa...
We reveal an explicit strategy to design the magneto-optic response of a magneto-plasmonic crystal ...
All-dielectric nanostructures provide a unique low-loss platform for efficiently increasing light-ma...
A major challenge facing plasmon nanophotonics is the poor dynamic tunability. A functional nanophot...
Spherical silicon nanoparticles with sizes of a few hundreds of nanometers represent a unique optica...
The multifold enhancement of the Faraday effect induced by magnetic dipole and Voigt effect amplific...
We demonstrate both experimentally and numerically multifold enhancement of magneto-optical effects ...
International audienceAll-dielectric metasurfaces have been attracting much attention. Low optical l...
Control of light by an external magnetic field is one of the important methods for modulation of its...
The advantages of gyrotopic materials are combined with the field of high-index metamaterials. The e...
This document is the Accepted Manuscript version of a Published Work that appeared in final form in ...
peer reviewedWe present a novel concept of a magnetically tunable plasmonic crystal based on the exc...
The spectrally controllable enhancement of the transverse magneto-optical Kerr effect is realized in...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Here I discuss the possibilities given by combining magnetism and plasmonics to gain control over po...
We present a novel concept of a magnetically tunable plasmonic crystal based on the excitation of Fa...
We reveal an explicit strategy to design the magneto-optic response of a magneto-plasmonic crystal ...
All-dielectric nanostructures provide a unique low-loss platform for efficiently increasing light-ma...
A major challenge facing plasmon nanophotonics is the poor dynamic tunability. A functional nanophot...
Spherical silicon nanoparticles with sizes of a few hundreds of nanometers represent a unique optica...