The Lambertian limit for solar cells is a benchmark for evaluating their efficiency. It has been shown that the performance of either extremely thick or extremely thin solar cells can be driven close to this limit by using an appropriate photon management. Here we show that this is likewise possible for realistic, practically relevant thin-film solar cells based on amorphous silicon. Most importantly, we achieve this goal by relying on random textures already incorporated into state-of-the-art superstrates; with the only subtlety that their topology has to be downscaled to typical feature sizes of about 100 nm
It is now well established that light trapping is an essential element of thin film solar cell desig...
Over the last several decades there have been significant advances in the study and understanding of...
Theory predicts that periodic photonic nanostructures should outperform their random counterparts in...
We present a modelling study of thin silicon based solar cells endowed with periodic and decoupled f...
We present a theoretical study of crystalline and amorphous silicon thin-film solar cells with a per...
We report here several different superlattice photonic crystal based designs for 200nm thick c-Si so...
Action FP7-PEOPLE-2013-IEF through the DIELECTRIC PV project (Grant 629370). Grant SFRH/BPD/115566/2...
This work was supported by the EU through Marie Curie Action FP7-PEOPLE-2010-ITN Project No. 264687 ...
We report on the design, fabrication, and measurement of ultrathin film a-Si:H solar cells with nano...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...
Efficient solar cells require both strong absorption and effective collection of photogenerated carr...
In this work, a novel type of substrate for thin-film silicon solar cells is studied. The substrate ...
Developments in thin-film amorphous and polycrystalline photovoltaic cells are reviewed and discusse...
An amorphous silicon solar cell on a periodic nanocone back reflector with a high 9.7% initial conve...
Efficient photovoltaic conversion of solar energy requires optimization of both light absorption and...
It is now well established that light trapping is an essential element of thin film solar cell desig...
Over the last several decades there have been significant advances in the study and understanding of...
Theory predicts that periodic photonic nanostructures should outperform their random counterparts in...
We present a modelling study of thin silicon based solar cells endowed with periodic and decoupled f...
We present a theoretical study of crystalline and amorphous silicon thin-film solar cells with a per...
We report here several different superlattice photonic crystal based designs for 200nm thick c-Si so...
Action FP7-PEOPLE-2013-IEF through the DIELECTRIC PV project (Grant 629370). Grant SFRH/BPD/115566/2...
This work was supported by the EU through Marie Curie Action FP7-PEOPLE-2010-ITN Project No. 264687 ...
We report on the design, fabrication, and measurement of ultrathin film a-Si:H solar cells with nano...
Thin, flexible, and invisible solar cells will be a ubiquitous technology in the near future. Ultrat...
Efficient solar cells require both strong absorption and effective collection of photogenerated carr...
In this work, a novel type of substrate for thin-film silicon solar cells is studied. The substrate ...
Developments in thin-film amorphous and polycrystalline photovoltaic cells are reviewed and discusse...
An amorphous silicon solar cell on a periodic nanocone back reflector with a high 9.7% initial conve...
Efficient photovoltaic conversion of solar energy requires optimization of both light absorption and...
It is now well established that light trapping is an essential element of thin film solar cell desig...
Over the last several decades there have been significant advances in the study and understanding of...
Theory predicts that periodic photonic nanostructures should outperform their random counterparts in...