Degradation of Monofacial Double Glass and Glass Backsheet Photovoltaic Modules with Multiple Packaging Combinations

Jiqi Liu, Sameera Nalin Venkat, J. Braid, Ben X. J. Yu, Brent Brownell, Xinjun Li, Jean-Nicolas Jaubert, L. Bruckman, R. French
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Abstract

The long-term reliability of photovoltaic (PV) modules is essential to decrease the levelized cost of electricity and is dependent on module packaging choices. In this paper, we study the degradation of double glass (DG) and glass-backsheet (GB) PV modules with ethylene-vinyl acetate (EVA) and polyolefin elastomer (POE) encapsulants using multicrystalline PERC cells under accelerated exposures including modified damp heat (mDH) and mDH with full-spectrum light (FSL). The results showed that the modules with opaque rear encapsulant have greater power loss on average than those with UV-cutoff rear encapsulant for each module type. The dominant degradation mechanism was series resistance (Rs) increase indicating interconnect corrosion for most module types. In addition to the increased Rs, GB modules with UV-cutoff rear encapsulant experienced power loss by transmission loss, and the POE_GB type under mDH+FSL also had more cell shunting. For modules with opaque rear encapsulant, the POE_DG type under mDH+FSL had power loss dominated by transmission loss.
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多重封装组合的单面双玻璃和玻璃背板光伏组件的降解研究
光伏(PV)组件的长期可靠性对于降低电力成本至关重要,并且取决于组件封装的选择。在本文中,我们研究了双玻璃(DG)和玻璃背板(GB)光伏组件与乙烯-醋酸乙烯(EVA)和聚烯烃弹性体(POE)封装使用多晶PERC电池在加速暴露包括改性湿热(mDH)和mDH与全光谱光(FSL)下的降解。结果表明,在各模块类型中,使用不透明后封装剂的模块平均功率损失大于使用防紫外线后封装剂的模块。大多数模块类型的主要降解机制是串联电阻(Rs)增加,表明互连腐蚀。除Rs增加外,后封uv的GB模组由于传输损耗而产生功率损失,并且mDH+FSL下的POE_GB模组也有更多的cell分流。对于后包胶不透明的模块,mDH+FSL下的POE_DG型功率损耗以传输损耗为主。
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