We demonstrate both experimentally and numerically multifold enhancement of magneto-optical effects in subwavelength dielectric nanostructures with a magnetic surrounding exhibiting localized magnetic Mie resonances. We employ amorphous silicon nanodisks covered with a thin nickel film and achieve the 5-fold enhancement of the magneto-optical response of the hybrid magnetophotonic array of nanodisks in comparison with a thin nickel film deposited on a flat silica substrate. Our findings allow for a new basis for active and nonreciprocal photonic nanostructures and metadevices, which could be tuned by an external magnetic field
We study numerically the possibility of controlling light properties by means of an external magneti...
We present a novel concept of a magnetically tunable plasmonic crystal based on the excitation of Fa...
Magnetoplasmonics is an emerging field of intense research on materials combining magnetic and plasm...
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...
The field of magnetoplasmonics exploits interactions between light and magnetic matter at the nanosc...
peer reviewedWe present a novel concept of a magnetically tunable plasmonic crystal based on the exc...
Rapid progress in the fields of plasmonics and metamaterials is driven by their ability to enhance n...
Light-matter interactions at the nanoscale constitute a fundamental ingredient for engineering appli...
Similar to their plasmonic counterparts, dielectric nanoantennas have the ability to manipulate the ...
An enhanced emission of high quantum yield molecules coupled to dielectric metasurfaces formed by pe...
Resumen del póster presentado a la NanoSpain Conference, celebrada en Logroño (España) del 15 al 18 ...
The multifold enhancement of the Faraday effect induced by magnetic dipole and Voigt effect amplific...
All-dielectric nanostructures provide a unique low-loss platform for efficiently increasing light-ma...
We study numerically the possibility of controlling light properties by means of an external magneti...
We present a novel concept of a magnetically tunable plasmonic crystal based on the excitation of Fa...
Magnetoplasmonics is an emerging field of intense research on materials combining magnetic and plasm...
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...
The field of magnetoplasmonics exploits interactions between light and magnetic matter at the nanosc...
peer reviewedWe present a novel concept of a magnetically tunable plasmonic crystal based on the exc...
Rapid progress in the fields of plasmonics and metamaterials is driven by their ability to enhance n...
Light-matter interactions at the nanoscale constitute a fundamental ingredient for engineering appli...
Similar to their plasmonic counterparts, dielectric nanoantennas have the ability to manipulate the ...
An enhanced emission of high quantum yield molecules coupled to dielectric metasurfaces formed by pe...
Resumen del póster presentado a la NanoSpain Conference, celebrada en Logroño (España) del 15 al 18 ...
The multifold enhancement of the Faraday effect induced by magnetic dipole and Voigt effect amplific...
All-dielectric nanostructures provide a unique low-loss platform for efficiently increasing light-ma...
We study numerically the possibility of controlling light properties by means of an external magneti...
We present a novel concept of a magnetically tunable plasmonic crystal based on the excitation of Fa...
Magnetoplasmonics is an emerging field of intense research on materials combining magnetic and plasm...