Entire band light management is crucial for amorphous silicon (a-Si) solar cells, especially when the absorbing layer becomes ultrathin. Here, we propose and demonstrate a double-side texture strategy to effectively manage light in ultrathin solar cells via a simple and scalable nanoparticle imprinting technique. SiO2 nanoparticles are half embedded into the top surface of the solar cells to introduce the double-side texture. Using a solar cell with a 150 nm thick a-Si layer as an example, we observe significant enhancement over the entire absorption band of a-Si both theoretically and experimentally. A maximum short circuit current density enhancement as high as 43.9% has been achieved experimentally compared with a flat solar cell
Ultrathin crystalline silicon solar cells are alternative technology roadmap to achieve more cost-ef...
The impact of controlled nanopatterning on the Ag back contact of an n-i-p a-Si:H solar cell was inv...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...
This thesis explores the enhancement effects of plasmonic nanoparticles and dielectric SiO2 nanopart...
Excellent light management is essential to increase the amount of light being captured in the absorb...
In order to increase the efficiency of high performance silicon heterojunction solar cells even furt...
ABSTRACT: Two types of nano-imprinted 2D grating textures were tested on their light trapping perfor...
As wafer-based solar cells become thinner, light-trapping textures for absorption enhancement will g...
Plasmonic nanostructures have been recently investigated as a possible way to improve absorption of ...
We present tailor made imprinted nanostructures for light management in liquid phase crystallized si...
The imprinting of random square based pyramidal textures with micrometric scale at the air/glass int...
Crystalline silicon solar cells are predominant and occupying more than 89% of the global solar phot...
AbstractLight trapping is essential for thin-film silicon solar cells due to their thin absorber lay...
The addressing of the light absorption and conversion efficiency is critical to the ultrathin-film h...
n this work, we report on the prototyping of thin-film silicon tandem solar cells with periodic ligh...
Ultrathin crystalline silicon solar cells are alternative technology roadmap to achieve more cost-ef...
The impact of controlled nanopatterning on the Ag back contact of an n-i-p a-Si:H solar cell was inv...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...
This thesis explores the enhancement effects of plasmonic nanoparticles and dielectric SiO2 nanopart...
Excellent light management is essential to increase the amount of light being captured in the absorb...
In order to increase the efficiency of high performance silicon heterojunction solar cells even furt...
ABSTRACT: Two types of nano-imprinted 2D grating textures were tested on their light trapping perfor...
As wafer-based solar cells become thinner, light-trapping textures for absorption enhancement will g...
Plasmonic nanostructures have been recently investigated as a possible way to improve absorption of ...
We present tailor made imprinted nanostructures for light management in liquid phase crystallized si...
The imprinting of random square based pyramidal textures with micrometric scale at the air/glass int...
Crystalline silicon solar cells are predominant and occupying more than 89% of the global solar phot...
AbstractLight trapping is essential for thin-film silicon solar cells due to their thin absorber lay...
The addressing of the light absorption and conversion efficiency is critical to the ultrathin-film h...
n this work, we report on the prototyping of thin-film silicon tandem solar cells with periodic ligh...
Ultrathin crystalline silicon solar cells are alternative technology roadmap to achieve more cost-ef...
The impact of controlled nanopatterning on the Ag back contact of an n-i-p a-Si:H solar cell was inv...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...