This paper presents a new implementation of the Rigorous Coupled Wave Analysis (RCWA) method to model the propagation of electro-magnetic waves in nanostructured optoelectronic solid state devices like solar cells. The proposed method is based on an improved and computational efficient S-matrix approach that can be extended to three-dimensional geometries
This paper reviews the current progress in mathematical modeling of anti-reflective subwavelength s...
AbstractEfficient light trapping is essential for silicon thin-film solar cells. Excellent light tra...
Efficient solar cells require both strong absorption and effective collection of photogenerated carr...
This paper presents a new implementation of the Rigorous Coupled Wave Analysis (RCWA) method to mode...
This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations ...
This paper presents some applications of a new implementation of the Fourier modal method to solve t...
To further improve the light management and optical performance of solar cells, research into nano-t...
This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations...
The surface of semiconductor solar cells, such as a-Si or CIGS (CuInGaSe) solar cells is not flat bu...
In order to increase the efficiency of thin-film solar cells, the nanostructure of these cells has t...
This paper presents two novel implementations of the Differential method to solve the Maxwell equati...
A variety of light management structures have been introduced in solar cells to improve light harves...
Efficient light trapping is of great importance for thin-film silicon solar cells. Randomly textured...
In the push to build high-efficiency solar cells with less materials usage, thin-film solar cells ha...
Embedding nanostructures in organic solar cells (OSCs) is a well-known method to improve the absorpt...
This paper reviews the current progress in mathematical modeling of anti-reflective subwavelength s...
AbstractEfficient light trapping is essential for silicon thin-film solar cells. Excellent light tra...
Efficient solar cells require both strong absorption and effective collection of photogenerated carr...
This paper presents a new implementation of the Rigorous Coupled Wave Analysis (RCWA) method to mode...
This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations ...
This paper presents some applications of a new implementation of the Fourier modal method to solve t...
To further improve the light management and optical performance of solar cells, research into nano-t...
This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations...
The surface of semiconductor solar cells, such as a-Si or CIGS (CuInGaSe) solar cells is not flat bu...
In order to increase the efficiency of thin-film solar cells, the nanostructure of these cells has t...
This paper presents two novel implementations of the Differential method to solve the Maxwell equati...
A variety of light management structures have been introduced in solar cells to improve light harves...
Efficient light trapping is of great importance for thin-film silicon solar cells. Randomly textured...
In the push to build high-efficiency solar cells with less materials usage, thin-film solar cells ha...
Embedding nanostructures in organic solar cells (OSCs) is a well-known method to improve the absorpt...
This paper reviews the current progress in mathematical modeling of anti-reflective subwavelength s...
AbstractEfficient light trapping is essential for silicon thin-film solar cells. Excellent light tra...
Efficient solar cells require both strong absorption and effective collection of photogenerated carr...