In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation and internal reflection at the back surface will become increasingly important. To keep processing times sufficiently short, it would be favorable if high-rate PECVD layers could satisfy both means. In this paper we will present that both high quality silicon nitride films and silicon oxide films can be deposited by means of the expanding thermal plasma technique which is employed in the commercially available DEPx system of OTB Solar. Consequently, both the front and back surface of a high-efficiency solar cell can be optimized while keeping processing times sufficiently low
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition f...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition for ...
In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation ...
In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation ...
In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation ...
The expanding thermal plasma (ETP) is a novel plasma technique currently used by several solar cell ...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition for ...
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition f...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition for ...
In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation ...
In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation ...
In order to increase the cost-effectiveness of crystalline silicon solar cells, surface passivation ...
The expanding thermal plasma (ETP) is a novel plasma technique currently used by several solar cell ...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
High-quality surface and bulk passivation of crystalline silicon solar cells has been obtained under...
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition for ...
Driven by the need for improvement of the economical competitiveness of photovoltaic energy, the fea...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition f...
The development of a novel plasma technique for high rate (> 1 nm/s) silicon nitride deposition for ...