This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations in nanostructured optoelectronic solid state devices such as thin-film solar cells. The proposed algorithm is suitable for structures with arbitrary spatial variation of the permittivity and it is based on an improved and computationally efficient approach that does not involve the calculation of eigenvalues. The two-dimensional (2-D) numerical simulator has been applied to model the light propagation in a thin film amorphous silicon solar cell in order to analyze the dependence of conversion efficiency on the morphology of the internal interfaces
Efficient light trapping is of great importance for thin-film silicon solar cells. Randomly textured...
The optimal morphology of nanotextured interfaces, which increase the photocurrent density of thin f...
This paper reviews the current progress in mathematical modeling of anti-reflective subwavelength s...
This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations ...
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...
This paper presents a new implementation of the Rigorous Coupled Wave Analysis (RCWA) method to mode...
This paper presents two novel implementations of the Differential method to solve the Maxwell equati...
In order to increase the efficiency of thin-film solar cells, the nanostructure of these cells has t...
A novel structure for thin-film solar cells is simulated with the purpose of maximizing the absorpti...
AbstractEfficient light trapping is essential for silicon thin-film solar cells. Excellent light tra...
To further improve the light management and optical performance of solar cells, research into nano-t...
Efficient light trapping is essential for silicon thin-film solar cells. Excellent light trapping fo...
The surface of semiconductor solar cells, such as a-Si or CIGS (CuInGaSe) solar cells is not flat bu...
Light management is important for improving the performance of thin-film solar cells. Advanced conce...
Efficient light trapping is of great importance for thin-film silicon solar cells. Randomly textured...
The optimal morphology of nanotextured interfaces, which increase the photocurrent density of thin f...
This paper reviews the current progress in mathematical modeling of anti-reflective subwavelength s...
This paper presents a new implementation of the Fourier modal method to solve the Maxwell equations ...
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...
This paper presents a new implementation of the Rigorous Coupled Wave Analysis (RCWA) method to mode...
This paper presents two novel implementations of the Differential method to solve the Maxwell equati...
In order to increase the efficiency of thin-film solar cells, the nanostructure of these cells has t...
A novel structure for thin-film solar cells is simulated with the purpose of maximizing the absorpti...
AbstractEfficient light trapping is essential for silicon thin-film solar cells. Excellent light tra...
To further improve the light management and optical performance of solar cells, research into nano-t...
Efficient light trapping is essential for silicon thin-film solar cells. Excellent light trapping fo...
The surface of semiconductor solar cells, such as a-Si or CIGS (CuInGaSe) solar cells is not flat bu...
Light management is important for improving the performance of thin-film solar cells. Advanced conce...
Efficient light trapping is of great importance for thin-film silicon solar cells. Randomly textured...
The optimal morphology of nanotextured interfaces, which increase the photocurrent density of thin f...
This paper reviews the current progress in mathematical modeling of anti-reflective subwavelength s...