The effect of process parameters on the plasma deposition of mu c-Si:H solar cells is reviewed in this article. Several in situ diagnostics are presented, which can be used to study the process stability as an additional parameter in the deposition process. The diagnostics were used to investigate the stability of the substrate temperature during deposition at elevated power and the gas composition during deposition at decreased hydrogen dilution. Based on these investigations, an updated view on the role of the process parameters of plasma power, heater temperature, total gas flow rate, and hydrogen dilution is presented
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
Microcrystalline silicon emerged in the past decade as highly interesting material for application i...
Microcrystalline silicon emerged in the past decade as highly interesting material for application i...
A 13.56 MHz parallel plate hydrogen-diluted silane plasma, operated at high pressure and high power,...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
The effect of process parameters on the plasma deposition of µc-Si:H solar cells is reviewed in this...
Microcrystalline silicon emerged in the past decade as highly interesting material for application i...
Microcrystalline silicon emerged in the past decade as highly interesting material for application i...
A 13.56 MHz parallel plate hydrogen-diluted silane plasma, operated at high pressure and high power,...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
A 13.56 MHz parallel plate hydrogen-dild. silane plasma, operated at high pressure and high power, w...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...
The effect of process parameters on the deposition of μc-Si:H solar cells is reviewed. Then, our app...