Pushing the boundaries: Challenges that arise in manufacturing and designing photovoltaic modules for new application areas

This work discusses challenges arising from the trends in the photovoltaic (PV) market, for new cell types and for modules used for special applications such as vehicle-integrated photovoltaic (VIPV), building-integrated photovoltaic (BIPV), and road-integrated photovoltaic (RIPV). In contrast to standard modules, modules for new applications often must fulfill additional requirements, and the sensitivity of new cell types makes the situation not easier. These requirements include aesthetical look, dealing with 3D curved shapes, shading resilience and mitigating sun reflectance of modules used as noise barriers on highways etc. To meet these points and to handle the new cell technologies the bill of materials (BOM) also may need to be adjusted. With the shift in solar cells from PERC to more efficient Tandem cells, the manufacturing process of modules requires adaptation of process parameters. Our study demonstrates that PERC cells can be laminated at temperatures up to 180 °C in a short duration process. In contrast, Perovskite Si-tandem cells (PVST) are more sensitive to high temperatures, necessitating the use of low-temperature lamination processes. We have developed an in-house simulation tool that helps to optimize the process parameters by modeling the temperature and gel-content profile in the module during the lamination process. This research aims to show the challenges of the new technologies and focuses on possible solutions in terms of their manufacturing process and design phase. • Showed how to optimize BOM's and manufacturing processes for new PV module applications. • Developed low-temperature lamination for Perovskite-Si Tandem modules. • Introduced the 3D membrane-membrane lamination technology suitable for vehicle-integrated curved modules. • Presented how to optimize BIPV modules by combining the MorphoColor® Technology with matrix shingling. • Enhanced RIIPV modules with specialized designs.

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Publication Details

Journal
Solar Energy Materials and Solar Cells
Published
2025-05-27
DOI
https://doi.org/10.1016/j.solmat.2025.113735
Citations
2
Primary Topic
solar cell performance optimization
Type
article
Field-Weighted Citation Impact
1.46

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article

Pushing the boundaries: Challenges that arise in manufacturing and designing photovoltaic modules for new application areas

Christine Wellens, Daniel von Kutzleben, Dirk Holger Neuhaus, Martin Heinrich et al.
2 citations
Solar Energy Materials and Solar Cells
solar cell performance optimization
1.46
article

Pushing the boundaries: Challenges that arise in manufacturing and designing photovoltaic modules for new application areas

Christine Wellens, Daniel von Kutzleben, Dirk Holger Neuhaus, Martin Heinrich, Najwa Abdel Latif, Sebastian Neven-du Mont, Pascal Romer, Aksel Kaan Öz, Veronika Nikitina, Jacob Forster
article en
2 citations

Abstract

This work discusses challenges arising from the trends in the photovoltaic (PV) market, for new cell types and for modules used for special applications such as vehicle-integrated photovoltaic (VIPV), building-integrated photovoltaic (BIPV), and road-integrated photovoltaic (RIPV). In contrast to standard modules, modules for new applications often must fulfill additional requirements, and the sensitivity of new cell types makes the situation not easier. These requirements include aesthetical look, dealing with 3D curved shapes, shading resilience and mitigating sun reflectance of modules used as noise barriers on highways etc. To meet these points and to handle the new cell technologies the bill of materials (BOM) also may need to be adjusted. With the shift in solar cells from PERC to more efficient Tandem cells, the manufacturing process of modules requires adaptation of process parameters. Our study demonstrates that PERC cells can be laminated at temperatures up to 180 °C in a short duration process. In contrast, Perovskite Si-tandem cells (PVST) are more sensitive to high temperatures, necessitating the use of low-temperature lamination processes. We have developed an in-house simulation tool that helps to optimize the process parameters by modeling the temperature and gel-content profile in the module during the lamination process. This research aims to show the challenges of the new technologies and focuses on possible solutions in terms of their manufacturing process and design phase. • Showed how to optimize BOM's and manufacturing processes for new PV module applications. • Developed low-temperature lamination for Perovskite-Si Tandem modules. • Introduced the 3D membrane-membrane lamination technology suitable for vehicle-integrated curved modules. • Presented how to optimize BIPV modules by combining the MorphoColor® Technology with matrix shingling. • Enhanced RIIPV modules with specialized designs.

Solar Energy Materials and Solar CellsVol. 291
Fraunhofer Institute for Solar Energy Systems (DE)
Bundesministerium für Wirtschaft und Energie
Openalex Percentile: Top 17%
solar cell performance optimization
1.46
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