光伏系统
材料科学
热塑性塑料
纳米技术
弹性体
聚合物
热塑性弹性体
工程物理
太阳能电池
热塑性聚合物
复合材料
共聚物
工艺工程
薄膜
计算机科学
胶粘剂
作者
Gernot Oreški,Chiara Barretta,Petra Christöfl,Paul Gebhardt,Karl‐Anders Weiß,David C. Miller,Soňa Uličná,Michael Kempe,Laura S. Bruckman,Alessandro Virtuani,Hengyu Li,Brian M. Habersberger,Jeff Munro,K. Proost,Marcel Kühne
摘要
ABSTRACT In recent years, photovoltaic (PV) encapsulant films marketed as polyolefins (POs), more specifically as PO elastomers (POEs) and thermoplastic POs (TPOs), have gained significant market share and are projected to become the dominant encapsulation films by 2030. Relative to other industries, there are significant misconceptions about the term PO in the PV industry. Both in the scientific literature as well as in sales and advertising, the terms PO, POE, and TPO are often misused to describe the same type of material with comparable properties, while in reality these may each consist of separate material classes. This paper provides a comprehensive literature and market review, to showcase a broad range of PO and other ethylene copolymer encapsulants from recent studies, and discusses the materials' properties to clarify what constitutes a “polyolefin.” In addition, to promote a clearer comparison of encapsulant properties, we propose a two‐dimensional taxonomy to categorize polymers used in module manufacturing, including POs. In terms of improving the reliability of solar PV modules, PO‐based encapsulants have several advantages (including lower water uptake and ion diffusion), but might come with disadvantages too, such as a more complex processing and a higher sensitivity to the storage conditions and shelf life. All this might prospectively impact adhesion properties of the encapsulant to other materials' interfaces (glass, cells etc.) and end‐product quality. Because the track record of field‐deployed PV modules containing PO encapsulants is also limited, we hope to contribute to better material understanding and precision in communication in PV to secure quality.
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