Progress of Atmospheric Screen-printable Cu Paste for High Efficiency PERC Solar Cells

A. Ebong, S. Huneycutt, Sarah Grempels, K. Ankireddy, R. Dharmadasa, T. Druffel
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引用次数: 3

Abstract

The metallization of solar cells remains a dominating factor for the total cost of solar cell manufacturing and must be reduced. A prime candidate to replace the traditional Ag is Cu since it is close in conductivity but about 100 times lower cost. However, the oxidation of Cu in atmosphere and its diffusion into Si have been troublesome factors preventing its implementation. These two challenges were considered to formulate the thick film Cu paste and the 19.4% efficiency, fill factor of 76.02%, short-circuit current density of 39.0 mA/cm2 and open-circuit voltage of 654.4 mV, show these challenges have been overcome.
高效PERC太阳能电池用常压丝网印刷铜浆料的研究进展
太阳能电池的金属化仍然是太阳能电池制造总成本的主要因素,必须降低。铜是取代传统银的主要候选者,因为它的导电性接近,但成本低约100倍。然而,Cu在大气中的氧化及其向Si的扩散一直是阻碍其实现的困难因素。考虑了这两方面的挑战,制备出了效率为19.4%、填充系数为76.02%、短路电流密度为39.0 mA/cm2、开路电压为654.4 mV的厚膜铜浆料。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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