Programm Photovoltaik Ausgabe 2009 ... - Bundesamt für Energie BFE
Programm Photovoltaik Ausgabe 2009 ... - Bundesamt für Energie BFE Programm Photovoltaik Ausgabe 2009 ... - Bundesamt für Energie BFE
7/8 SP6 – Process Analysis – Upscaling The manufacturing of nano-TiO2 in larger scale encountered a problem due to agglomeration of the titania particles during work-up, as shown in the TiO2 layer SEM pictures below: By reducing the concentrations involved, the issue was solved and only a small scaling up of a factor two was achieved. The dye solar cell modules have been sucessfully increased in size from 10 x 10 cm to 30 x 30 cm thanks to a new 70 x 50 cm precision screen printer acquired in 2008. Currently, the "30 x 30 cm pilot line" is in build-up allowing for faster production of these demonstration modules, starting in April 09. NAPOLYDE, T. Meyer, Solaronix 151/290
National and international collaboration From the nature of this project, most of the partners are international, such as ELCERAM in the Tchech Republic, SIEMENS & KONARKA in Germany, SOPRA & St-Gobain in France, BAR-ILAN University in Israel. A partnership with a large Swiss chemicals company has been tied up for the investigation of new materials and the feasibility of large scale manufacturing of monolithic modules using all printed active layers. A new Eureka program E!4413 LCSC with 3GSolar (Israel) has been launched, investigating the manufacturing of large area monolithic dye solar cell modules. Evaluation 2008 and Outlook 2009 In 2008 the processes for the monolithic module manufacturing were identified and analyzed, especially the carbon paste printing and laser scribing were looked at carefully, as we observed many failures during to these steps. Thanks to new equipments, the solar module up scaling to 30 x 30 cm in size was mastered. Difficulties were encountered for the production increase of the screen print nano- TiO2 paste and the agglomeration problem was only solved by cutting back the batch sizes. During 2009, the up scaling of the monolithic module production to 30 x 30 cm will be completed with the arrival of the belt furnace in March 09. The aim is to make test cells / modules to be aged in artificial sunlight (light soaking) and also in low light conditions. Various demonstration samples (from a few cm 2 to up to 30 x 30 cm in size) will be produced for marketing and customer trials. References www.napolyde.org, www.myndsphere.com “Monolithic Dye Sensitized Solar Cell Modules" Toby Meyer , David Martineau, Asef Azam, Mike Scott and Andreas Meyer, Proceedings of the Nano-Sol-Net International Symposium: Trends in Organic Electronics and Hybrid Photovoltaics, Eforie Nord, Romania, June 12-14, 2008, edited by M.A. Gîr�u and M. Fahlman, Ovidius University Press, Constan�a 2008. NAPOLYDE, T. Meyer, Solaronix 152/290 8/8
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National and international collaboration<br />
From the nature of this project, most of the partners are international, such as ELCERAM in the<br />
Tchech Republic, SIEMENS & KONARKA in Germany, SOPRA & St-Gobain in France, BAR-ILAN<br />
University in Israel.<br />
A partnership with a large Swiss chemicals company has been tied up for the investigation of new materials<br />
and the feasibility of large scale manufacturing of monolithic modules using all printed active<br />
layers.<br />
A new Eureka program E!4413 LCSC with 3GSolar (Israel) has been launched, investigating the<br />
manufacturing of large area monolithic dye solar cell modules.<br />
Evaluation 2008 and Outlook <strong>2009</strong><br />
In 2008 the processes for the monolithic module manufacturing were identified and analyzed, especially<br />
the carbon paste printing and laser scribing were looked at carefully, as we observed many failures<br />
during to these steps. Thanks to new equipments, the solar module up scaling to 30 x 30 cm in<br />
size was mastered. Difficulties were encountered for the production increase of the screen print nano-<br />
TiO2 paste and the agglomeration problem was only solved by cutting back the batch sizes.<br />
During <strong>2009</strong>, the up scaling of the monolithic module production to 30 x 30 cm will be completed with<br />
the arrival of the belt furnace in March 09. The aim is to make test cells / modules to be aged in artificial<br />
sunlight (light soaking) and also in low light conditions. Various demonstration samples (from a<br />
few cm 2 to up to 30 x 30 cm in size) will be produced for marketing and customer trials.<br />
References<br />
www.napolyde.org,<br />
www.myndsphere.com<br />
“Monolithic Dye Sensitized Solar Cell Modules" Toby Meyer , David Martineau, Asef Azam, Mike Scott<br />
and Andreas Meyer, Proceedings of the Nano-Sol-Net International Symposium: Trends in Organic<br />
Electronics and Hybrid Photovoltaics, Eforie Nord, Romania, June 12-14, 2008, edited by M.A. Gîr�u<br />
and M. Fahlman, Ovidius University Press, Constan�a 2008.<br />
NAPOLYDE, T. Meyer, Solaronix<br />
152/290<br />
8/8