We show in theory, simulations, and experiments that, by applying random metallic nanomeshes, a broad-band multilayered structure with a 12 nm thick a-Si film as the active layer can absorb 89% of the total solar energy in the visible range from 400 nm to 700 nm. Such broadness and high absorption can be attributed to the random scattering introduced by the aperiodic metallic nanomeshes and the plasmonic-metamaterial design. The broadband and smooth electromagnetic response, combined with a very high absorption, is desired for solar energy harvesting devices, making this structure a good candidate for high efficiency photovoltaics with ultra-thin active layers
An amorphous silicon solar cell on a periodic nanocone back reflector with a high 9.7% initial conve...
ABSTRACT: We demonstrate a broadband, polarization independent, omnidirectional absorber based on a ...
Plasmonic absorbers have recently become important for a broad spectrum of sunlight-harvesting appli...
International audienceBroadband light trapping is numerically demonstrated in ultra-thin solar cells...
The high-index all-dielectric nanoantenna system is a platform recently used for multiple applicatio...
We report here several different superlattice photonic crystal based designs for 200nm thick c-Si so...
We present a concept for an ultrathin solar fuel device with a nanostructured back contact. Using ri...
We propose a back reflecting scheme in order to enhance the maximum achievable current in one micron...
Plasmonically enhanced absorbing structures have been emerging as strong candidates for photovoltaic...
We report on the design, fabrication, and measurement of ultrathin film a-Si:H solar cells with nano...
This work was supported by the National Natural Science Foundation of China (Grant Nos. 11504139, 11...
Utilizing solar energy requires perfect absorption of light by the photovoltaic cells, particularly ...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...
In this study, a novel metamaterial absorber (MA) is designed and numerically demonstrated for solar...
Although different materials and designs have been tried in search of the ideal as well as ultrawide...
An amorphous silicon solar cell on a periodic nanocone back reflector with a high 9.7% initial conve...
ABSTRACT: We demonstrate a broadband, polarization independent, omnidirectional absorber based on a ...
Plasmonic absorbers have recently become important for a broad spectrum of sunlight-harvesting appli...
International audienceBroadband light trapping is numerically demonstrated in ultra-thin solar cells...
The high-index all-dielectric nanoantenna system is a platform recently used for multiple applicatio...
We report here several different superlattice photonic crystal based designs for 200nm thick c-Si so...
We present a concept for an ultrathin solar fuel device with a nanostructured back contact. Using ri...
We propose a back reflecting scheme in order to enhance the maximum achievable current in one micron...
Plasmonically enhanced absorbing structures have been emerging as strong candidates for photovoltaic...
We report on the design, fabrication, and measurement of ultrathin film a-Si:H solar cells with nano...
This work was supported by the National Natural Science Foundation of China (Grant Nos. 11504139, 11...
Utilizing solar energy requires perfect absorption of light by the photovoltaic cells, particularly ...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...
In this study, a novel metamaterial absorber (MA) is designed and numerically demonstrated for solar...
Although different materials and designs have been tried in search of the ideal as well as ultrawide...
An amorphous silicon solar cell on a periodic nanocone back reflector with a high 9.7% initial conve...
ABSTRACT: We demonstrate a broadband, polarization independent, omnidirectional absorber based on a ...
Plasmonic absorbers have recently become important for a broad spectrum of sunlight-harvesting appli...