Metamaterials (MMs) are artificial, engineered materials with rationally designed compositions and arrangements of nanostructured building blocks. These materials can be tailored for almost any application because of their extraordinary response to electromagnetic, acoustic, and thermal waves that transcends the properties of natural materials (1–3). The astonishing MM-based designs and demonstrations range from a negative index of refraction, focusing and imaging with sub-wavelength resolution, invisibility cloaks, and optical black holes to nanoscale optics, data processing, and quantum information applications (3). Metals have traditionally been the material of choice for the building blocks, but they suffer from high resistive losses—ev...
Metamaterials allow control and tailoring the optical response of natural materials to achieve unpre...
The development of science and applications have reached a stage where the naturally existed materia...
We review conducting materials like metals, conducting oxides and graphene for nanophotonic applicat...
Metamaterials (MMs) are artificial, engineered materials with rationally designed compositions and a...
Metamaterials (MMs) are artificial, engineered materials with rationally designed compositions and a...
We report on a novel way of reducing plasmonic losses in noble metals commonly used in the fabricati...
In recent years, the emerging areas of nanophotonics and, in particular, plasmonics and metamaterial...
Plasmonics aims at combining features of photonics and electronics by coupling photons with a free-e...
In this work we review methods to decrease the optical absorption losses in metamaterials. The pract...
Manipulating light is highly desired in photonics research. Restricted by the variable range of perm...
We show that, for the resonant metal-dielectric structures with sub-wavelength confinement of light ...
Metamaterials, which are artificially engineered composites, have been shown to exhibit electromagne...
In this work we review methods to decrease the optical absorption losses in metamaterials. The pract...
In this work, we discuss ways to mitigate several problem with Metamaterials (MTMs), and discuss str...
Metamaterials are a class of artificial materials designed to interact with light in ways no natural...
Metamaterials allow control and tailoring the optical response of natural materials to achieve unpre...
The development of science and applications have reached a stage where the naturally existed materia...
We review conducting materials like metals, conducting oxides and graphene for nanophotonic applicat...
Metamaterials (MMs) are artificial, engineered materials with rationally designed compositions and a...
Metamaterials (MMs) are artificial, engineered materials with rationally designed compositions and a...
We report on a novel way of reducing plasmonic losses in noble metals commonly used in the fabricati...
In recent years, the emerging areas of nanophotonics and, in particular, plasmonics and metamaterial...
Plasmonics aims at combining features of photonics and electronics by coupling photons with a free-e...
In this work we review methods to decrease the optical absorption losses in metamaterials. The pract...
Manipulating light is highly desired in photonics research. Restricted by the variable range of perm...
We show that, for the resonant metal-dielectric structures with sub-wavelength confinement of light ...
Metamaterials, which are artificially engineered composites, have been shown to exhibit electromagne...
In this work we review methods to decrease the optical absorption losses in metamaterials. The pract...
In this work, we discuss ways to mitigate several problem with Metamaterials (MTMs), and discuss str...
Metamaterials are a class of artificial materials designed to interact with light in ways no natural...
Metamaterials allow control and tailoring the optical response of natural materials to achieve unpre...
The development of science and applications have reached a stage where the naturally existed materia...
We review conducting materials like metals, conducting oxides and graphene for nanophotonic applicat...