Active nanophotonics can be realized by controlling the optical properties of materials with external magnetic fields. Here, we explore the influence of optical anisotropy on the magneto-optical activity in non-magnetic hyperbolic nanoparticles. We demonstrate that the magneto-optical response is driven by fundamental electric and magnetic dipole modes induced by the hyperbolic dispersion. Magnetic circular dichroism experiments confirm the theoretical predictions and reveal tunable magneto-optical activity across the visible and near infrared spectral range
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
International audienceWe discuss the magneto-optical response of nanoparticles, and their potential ...
peer reviewedActive nanophotonics can be realized by controlling the optical properties of materials...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
International audienceWe discuss the magneto-optical response of nanoparticles, and their potential ...
peer reviewedActive nanophotonics can be realized by controlling the optical properties of materials...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
Active nanophotonics can be realized by controlling the optical properties of materials with externa...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
We study magneto-optical circular dichroism in type-II hyperbolic nanoantennas. Experiments and nume...
International audienceWe discuss the magneto-optical response of nanoparticles, and their potential ...