III-V semiconductors like GaAs and InGaN are very promising candidates for solar cells. While GaAs has near-ideal bandgap to reach the maximum possible efficiency limit for single junction solar cells, InGaN provides the ability to tune the bandgap of absorbing layers over a wide energy range. Since III-V semiconductors are mostly direct bandgap semiconductors, they are also very strong absorbers of light. Currently novel solar cell designs based on nanostructured absorbers like quantum dots1,2 or nanowires are under investigation to demonstrate high efficiency solar cells
In a race to reduce the cost per Watt of solar generated power, there is generally a tradeoff betwee...
In a race to reduce the cost per Watt of solar generated power, there is generally a tradeoff betwee...
Solar cells based on III-V compound semiconductors are ideally suited to convert solar energy into e...
In this work, solar cells based on III-V compound semiconductor quantum dots and nanowires are demon...
The growth and characterization of GaAs nanowires and GaNPAs thin-films is discussed within the cont...
In this paper, we propose a plasmon-enhanced solar cell structure based on a GaAs nanowire array dec...
Producing electrical power with photovoltaic solar panels is very attractive as the sun constitutes ...
Nano technologies may dramatically improve the efficiency of thin film silicon solar cells. The pape...
We demonstrate that plasmonic light trapping effect can be used to improve all the main device chara...
Metallic nanostructures can excite surface plasmons and can dramatically increase the optical path l...
Thin film solar cells have been widely studied with the focus on how to improve light trapping mecha...
The thesis deals with the investigation of optical, electrical and structural properties of III-V se...
Abstract: Efficiencies exceeding 40 % have already been achieved with GaAs-based multijunction (MJ) ...
In this paper, a systematic design and analysis of gallium arsenide thin film solar cells incorporat...
Plasmonic light trapping in thin film solar cells is investigated using full-wave electromagnetic si...
In a race to reduce the cost per Watt of solar generated power, there is generally a tradeoff betwee...
In a race to reduce the cost per Watt of solar generated power, there is generally a tradeoff betwee...
Solar cells based on III-V compound semiconductors are ideally suited to convert solar energy into e...
In this work, solar cells based on III-V compound semiconductor quantum dots and nanowires are demon...
The growth and characterization of GaAs nanowires and GaNPAs thin-films is discussed within the cont...
In this paper, we propose a plasmon-enhanced solar cell structure based on a GaAs nanowire array dec...
Producing electrical power with photovoltaic solar panels is very attractive as the sun constitutes ...
Nano technologies may dramatically improve the efficiency of thin film silicon solar cells. The pape...
We demonstrate that plasmonic light trapping effect can be used to improve all the main device chara...
Metallic nanostructures can excite surface plasmons and can dramatically increase the optical path l...
Thin film solar cells have been widely studied with the focus on how to improve light trapping mecha...
The thesis deals with the investigation of optical, electrical and structural properties of III-V se...
Abstract: Efficiencies exceeding 40 % have already been achieved with GaAs-based multijunction (MJ) ...
In this paper, a systematic design and analysis of gallium arsenide thin film solar cells incorporat...
Plasmonic light trapping in thin film solar cells is investigated using full-wave electromagnetic si...
In a race to reduce the cost per Watt of solar generated power, there is generally a tradeoff betwee...
In a race to reduce the cost per Watt of solar generated power, there is generally a tradeoff betwee...
Solar cells based on III-V compound semiconductors are ideally suited to convert solar energy into e...