We present a simple scheme for the manipulation of light intensity by light mediated by a dissipative process. The implementation employs the heat released by an optically excited plasmonic metal nanoparticle to control the size of an isotropic bubble in a nematic liquid crystal film. The nematic film is designed as a zero-order half-wave plate that rotates an incident probe light polarization by π/2 and is blocked by an analyzing polarizer behind the structure. The growing isotropic bubble disturbs the half-wave plate and causes the probe to be transmitted through the modulator structure. Our results demonstrate that dissipative processes may be advantageously used to control light by light
A thermoresponsive large-area plasmonic architecture, made from randomly distributed gold nanopartic...
Hybrid material, mixtures of two or more materials with new properties, represents an exciting class...
Light and heat are synergistic tools used in the manipulation of nanoparticles and biomolecules. Whe...
We demonstrate and characterize an optical control of the plasmonic heat delivered by a monolayer su...
We demonstrate and characterize an optical control of the plasmonic heat delivered by a monolayer su...
Photo-anisotropic properties of a particular command layer for Liquid Crystals (LCs), based on azo-b...
A new generation of reconfigurable optical components is conceived by bridging the photothermal prop...
We experimentally demonstrate that the plasmonic heat delivered by a single layer of homogeneously d...
A new generation of reconfigurable optical components is conceived by bridging the photothermal prop...
We experimentally demonstrate that the plasmonic heat delivered by a single layer of homogeneously d...
It was shown that irradiation of a nematic liquid crystal doped with metal nanoparticles in the visi...
We have demonstrated an all-optical technique for reversible in-plane and out-of-plane switching of ...
Plasmonic resonances are characterized by enhanced optical near field and subwavelength power conf...
Large shifts in the plasmonic resonances of a thin film of gold nanorods (GNRs) are induced through ...
The photo-induced heating from a layer of uniformly distributed gold nanoparticles has been characte...
A thermoresponsive large-area plasmonic architecture, made from randomly distributed gold nanopartic...
Hybrid material, mixtures of two or more materials with new properties, represents an exciting class...
Light and heat are synergistic tools used in the manipulation of nanoparticles and biomolecules. Whe...
We demonstrate and characterize an optical control of the plasmonic heat delivered by a monolayer su...
We demonstrate and characterize an optical control of the plasmonic heat delivered by a monolayer su...
Photo-anisotropic properties of a particular command layer for Liquid Crystals (LCs), based on azo-b...
A new generation of reconfigurable optical components is conceived by bridging the photothermal prop...
We experimentally demonstrate that the plasmonic heat delivered by a single layer of homogeneously d...
A new generation of reconfigurable optical components is conceived by bridging the photothermal prop...
We experimentally demonstrate that the plasmonic heat delivered by a single layer of homogeneously d...
It was shown that irradiation of a nematic liquid crystal doped with metal nanoparticles in the visi...
We have demonstrated an all-optical technique for reversible in-plane and out-of-plane switching of ...
Plasmonic resonances are characterized by enhanced optical near field and subwavelength power conf...
Large shifts in the plasmonic resonances of a thin film of gold nanorods (GNRs) are induced through ...
The photo-induced heating from a layer of uniformly distributed gold nanoparticles has been characte...
A thermoresponsive large-area plasmonic architecture, made from randomly distributed gold nanopartic...
Hybrid material, mixtures of two or more materials with new properties, represents an exciting class...
Light and heat are synergistic tools used in the manipulation of nanoparticles and biomolecules. Whe...