The phase-change technology behind rewritable optical disks and the latest generation of electronic memories can also offer high contrast plasmonic switching functionality. Numerical simulations illustrate the extent of this potential while preliminary experiments show that a silver/gallium-lanthanum sulphide interface can support surface plasmon-polaritons and demonstrate the principle of plasmonic modulation through reversible photo-induced changes in the chalcogenide
Here, a new platform for a realization of novel nonvolatile optical switching devices was proposed t...
Chalcogenide semiconductor alloys offer a uniquely functional and compositionally-controllable mater...
With a rapidly growing amount of data generated and processed, a search for more efficient component...
We show that the phase-change technology behind rewritable optical disks and the latest generation o...
Light-induced structural phase transitions in chalcogenide glasses bring about substantial changes i...
The phase change technology behind rewritable optical disks and the latest electronic memory storage...
The material technology behind rewritable optical disks and the latest generation of electronic memo...
Chalcogenides—alloys based on group-16 ‘chalcogen’ elements (sulfur, selenium, and tellurium) covale...
Chalcogenides—alloys based on group-16 ‘chalcogen’ elements (sulfur, selenium, and tellurium) covale...
Chalcogenides—alloys based on group-16 ‘chalcogen’ elements (sulfur, selenium, and tellurium) covale...
The technology behind rewritable optical disks offers a new switching paradigm for metamaterials. A ...
We demonstrate that the material technology behind rewritable optical disks offers a new switching p...
Non-volatile, bi-directional, all-optical switching in a phase-change metamaterial delivers high-con...
The chalcogenides are a unique material family, variously offering high-index dielectric, plasmonic,...
For the first time, we demonstrate a non-volatile bi-directional all-optical switching in a phase-ch...
Here, a new platform for a realization of novel nonvolatile optical switching devices was proposed t...
Chalcogenide semiconductor alloys offer a uniquely functional and compositionally-controllable mater...
With a rapidly growing amount of data generated and processed, a search for more efficient component...
We show that the phase-change technology behind rewritable optical disks and the latest generation o...
Light-induced structural phase transitions in chalcogenide glasses bring about substantial changes i...
The phase change technology behind rewritable optical disks and the latest electronic memory storage...
The material technology behind rewritable optical disks and the latest generation of electronic memo...
Chalcogenides—alloys based on group-16 ‘chalcogen’ elements (sulfur, selenium, and tellurium) covale...
Chalcogenides—alloys based on group-16 ‘chalcogen’ elements (sulfur, selenium, and tellurium) covale...
Chalcogenides—alloys based on group-16 ‘chalcogen’ elements (sulfur, selenium, and tellurium) covale...
The technology behind rewritable optical disks offers a new switching paradigm for metamaterials. A ...
We demonstrate that the material technology behind rewritable optical disks offers a new switching p...
Non-volatile, bi-directional, all-optical switching in a phase-change metamaterial delivers high-con...
The chalcogenides are a unique material family, variously offering high-index dielectric, plasmonic,...
For the first time, we demonstrate a non-volatile bi-directional all-optical switching in a phase-ch...
Here, a new platform for a realization of novel nonvolatile optical switching devices was proposed t...
Chalcogenide semiconductor alloys offer a uniquely functional and compositionally-controllable mater...
With a rapidly growing amount of data generated and processed, a search for more efficient component...