Effectiveness of Poly(methyl methacrylate) spray encapsulation for perovskite solar cells

Declan Hughes, Michael Spence, Suzanne K. Thomas, Rokas Apanavicius, Chris Griffiths, Matthew J. Carnie, W. C. Tsoi
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Abstract

For commercial applications, Perovskite Solar Cells (PSCs) need to be well encapsulated to improve long term stability. The most common method, glass-glass encapsulation, uses edge sealant materials to encapsulate the device between sheets of glass. Glass-Glass encapsulation, while providing provide adequate protection from the ambient environment, limits the use of flexible substrates for thin film solar cells due to its rigidity. Additionally, the added weight of glass encapsulation reduces the specific power (W/kg) of PSCs, which is an important factor when designing solar cells for aerospace applications. Here we demonstrate that commercially available acrylic spray encapsulation offers efficient and robust stability for PSCs. It is shown that applying the encapsulation via this method does not degrade the PSCs, unlike other literature and glass-glass encapsulation methods. Additionally, it is shown that 1 coat of acrylic spray encapsulation has an effective thickness of ~1.77 µm and a weight of ~6 mg. For stability measurements, PSCs with acrylic coating show a 4% increase in performance after ~730 hours under dark storage conditions and retain 88% of their initial power conversion efficiency after 288 hours under 85% relative humidity 25°C. We anticipate our assay to be a starting point for further studies into spray encapsulation materials and methods not just for terrestrial applications, but for aerospace applications as well
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聚(甲基丙烯酸甲酯)喷雾封装在过氧化物太阳能电池中的应用效果
在商业应用中,需要对 Perovskite 太阳能电池 (PSC) 进行良好封装,以提高其长期稳定性。最常见的方法是玻璃-玻璃封装,使用边缘密封材料将器件封装在玻璃片之间。玻璃-玻璃封装虽然能提供足够的保护,使其免受周围环境的影响,但由于其刚性,限制了薄膜太阳能电池对柔性基板的使用。此外,玻璃封装增加的重量降低了 PSC 的比功率(瓦/千克),而这是设计航空航天应用太阳能电池时的一个重要因素。在这里,我们证明了市场上销售的丙烯酸喷涂封装技术可为 PSC 提供高效、坚固的稳定性。与其他文献和玻璃-玻璃封装方法不同的是,通过这种方法进行封装不会使 PSC 退化。此外,研究还表明,一层丙烯酸喷雾封装的有效厚度约为 1.77 微米,重量约为 6 毫克。在稳定性测量方面,带有丙烯酸涂层的 PSC 在黑暗储存条件下经过约 730 小时后,性能提高了 4%,在相对湿度为 85% 的 25°C 条件下经过 288 小时后,其初始功率转换效率保持了 88%。我们预计,我们的试验将成为进一步研究喷雾封装材料和方法的起点,不仅适用于陆地应用,也适用于航空航天应用。
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