A general route to Earth abundant element absorber layers for thin film photovoltaics with high yield using molecular precursors and non-toxic solvents

Wooseok Ki, H. Hillhouse
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引用次数: 1

Abstract

Earth abundant absorber materials are the most promising candidates for terawatt-scale thin film photovoltaics due to the robust supply chains for the elements involved. The strongest initial candidate appears to be Cu2ZnSnS4 (CZTS), but there are other potential material systems such as FeS2, CuO, and PbS that are just beginning to be re-examined with solution phase processing. Here we report a new, facile, and scalable chemical route to Earth abundant element thin film solar cells by coating a solution of highly soluble, inexpensive, and commercially available precursors in an environmentally friendly non-toxic solvent to form device quality films. Air-stable CZTS photovoltaic devices with 4.1% total area power conversion efficiency are obtained. We have generalized the chemical route and have used it to also fabricate PbS devices that are 1.5% efficient.
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利用分子前驱体和无毒溶剂制备高收率薄膜光伏电池的地球富元素吸收层的一般途径
由于所涉及的元素的强大供应链,地球丰富的吸收材料是太瓦规模薄膜光伏发电最有希望的候选者。最初最强的候选材料似乎是Cu2ZnSnS4 (CZTS),但也有其他潜在的材料体系,如FeS2、CuO和PbS,它们刚刚开始用固相处理技术重新研究。在这里,我们报告了一种新的、简单的、可扩展的化学方法,通过在一种环境友好的无毒溶剂中涂覆一种高可溶性、廉价且商业化的前驱体溶液,形成器件质量的薄膜,来制造地球上丰富元素的薄膜太阳能电池。获得了总面积功率转换效率为4.1%的空气稳定型CZTS光伏器件。我们已经推广了化学路线,并使用它来制造效率为1.5%的PbS装置。
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