Core Objective 5: Module Materials Solutions
DuraMAT's materials solutions core objective leverages technical capabilities across all of its partners to design, develop, and de-risk materials that address the current reliability challenges in photovoltaic (PV) systems.
Depending on specific project goals, the study targets may include electrically conductive adhesives (ECAs), backsheets, anti-soiling coatings, flexible packaging, cell cracking, and moisture barriers. This crosscutting objective will generate results that threads through all other objectives as materials solutions is the foundation for advances in reliability and degradation.
Key results under this objective are the development of a self-healing, conducting composite that regains electrical continuity across cracks and the generation of new concepts for module encapsulation and barrier technologies.
Key Results
- De-risk innovative materials using accelerated testing and materials forensics:
- Characterization of failure modes in ECAs, develop crack tolerant metallization to increase reliability of cells, design sustainable, reliable, recyclable backsheets
- Enable new architectures including:
- Flexible modules: define the technical requirement of each component in the flexible module as well as the overall material stack, and develop process to experimentally evaluate module performances, Advance reliability of bifacial modules through new transparent packaging materials
Related Projects
Reliability of Modules with High-Efficiency Solar Cells with Copper-Plated Contacts
Development of Flexible Panel Front Sheet with 25-Year Rated Lifetime
Advanced Material Development to Support Low-LCOE 25-Year Flexible Photovoltaic Modules
Development of a Spray Deposition Method for a Polysilsesquioxane Coating for Photovoltaic Modules
New Concepts for Reliable Low-Cost Module Encapsulation and Barrier Technologies
Advanced Multifunctional Coatings for PV Glass to Reduce Soiling and PID Losses
Advanced Multifunctional Coatings for PV Glass PV Module Backsheets
Failure Mechanisms in Electrically Conductive Adhesives
A Hybrid Hydrophobic-Hydrophilic Coating with Combined Anti-Reflective and Anti-Soiling Properties
Materials Discovery, Selection, and Design Using Software Tools
Electromechanical and Mechanical Stress Testing of Grid Fingers, Busbars, and Modules
Highly Conductive, Low-Cost Polymer Adhesive Composites with Complex Dimensional Fillers
Scalable Packaging Materials for Roll-to-Roll Processed Thin Film Solar Cells
BACKFLIP: Determination of Backsheet Material Properties
Laser-Welded Edge Seals for Glass/Glass PV Modules
Durability of Modules Utilizing Screen-Printed Copper Contacts
Multifunctional and Durable Engineered Glass for Photovoltaic Applications
Contact
To learn more about this core objective, contact Bruce King.