Novel Module Architecture for Improved Stability of Perovskites in 1000 Hour Damp Heat Test

Photovoltaic (PV) energy is the fastest-growing form of energy production globally, and advancements in module design are critical to sustaining this growth. The Edge Sealed Module (ESM) architecture eliminates the vacuum lamination process and cross-linked encapsulants, significantly reducing manufacturing costs while improving reliability and high value recyclability. Prototypes of crystalline silicon (c-Si) modules have demonstrated enhanced durability in damp heat conditions and other accelerated stress tests. Initial results suggest strong potential for stabilizing perovskite PV modules as an alternative module architecture. Outdoor testing further highlights its robustness. The ESM’s ability to enable rapid prototyping supports the development of novel device architectures which are sensitive to degradation mechanisms. This innovation offers a cost-effective, scalable pathway for advancing both current and next-generation PV technologies.

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Published
2025-06-08
DOI
https://doi.org/10.1109/pvsc59419.2025.11132801
Primary Topic
Advancements in Solid Oxide Fuel Cells
Type
article
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article

Novel Module Architecture for Improved Stability of Perovskites in 1000 Hour Damp Heat Test

Larry Maple, Walajabad Sampath, Laxmi Laxmi, Dinesh Kabra et al.
Advancements in Solid Oxide Fuel Cells
article

Novel Module Architecture for Improved Stability of Perovskites in 1000 Hour Damp Heat Test

Larry Maple, Walajabad Sampath, Laxmi Laxmi, Dinesh Kabra, Ryan Ruhle, David Durney, Venkatesh G. Chityala
article en

Abstract

Photovoltaic (PV) energy is the fastest-growing form of energy production globally, and advancements in module design are critical to sustaining this growth. The Edge Sealed Module (ESM) architecture eliminates the vacuum lamination process and cross-linked encapsulants, significantly reducing manufacturing costs while improving reliability and high value recyclability. Prototypes of crystalline silicon (c-Si) modules have demonstrated enhanced durability in damp heat conditions and other accelerated stress tests. Initial results suggest strong potential for stabilizing perovskite PV modules as an alternative module architecture. Outdoor testing further highlights its robustness. The ESM’s ability to enable rapid prototyping supports the development of novel device architectures which are sensitive to degradation mechanisms. This innovation offers a cost-effective, scalable pathway for advancing both current and next-generation PV technologies.

Indian Institute of Technology Bombay (IN), Colorado State University (US)
Affordable and clean energy
Openalex Percentile: Top 83%
Advancements in Solid Oxide Fuel Cells
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