硅光伏无铅互连技术的材料结合分析

Derya Güldali, A. Rose
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引用次数: 0

摘要

由于对环境的负面影响,正在努力消除电子元件中的铅,也包括光伏行业。“绿色”太阳能组件的发展是高度相关的。对于太阳能电池的串联互连,目前使用的是含铅焊料合金。这项工作的目的是评估两种工业上可行的互连材料的微观结构及其对太阳能组件性能的影响,这些材料具有高潜力用于高效率硅异质结太阳能电池的互连:无铅焊料和无铅导电粘合剂。等温时效表明,焊接接头的微观结构发生了显著变化,如金属间化合物(Ag3 Sn, Cu3 Sn, Cu6 Sn5)的生长,并且与粘合接头相比,似乎影响了光伏组件的电性能。通过对小型光伏组件进行热循环,分析了其长期稳定性。两种替代方案的模块化集成已被证明是可能的,大约80%的测试模块已成功通过热循环测试(功耗低于5%)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Material Joint Analysis of Lead-Free Interconnection Technologies for Silicon Photovoltaics
Due to the negative environmental impact, efforts are being made to eliminate lead from electronic components, also in the photovoltaic industry. The development of a “green” solar module is of high relevance. For the series interconnection of solar cells, currently lead-containing solder alloys are used. The aim of this work is to evaluate the microstructure and impact on solar module performance of two industrially feasible interconnection materials with high potential for the interconnection of high-efficiency silicon heterojunction solar cells: lead-free solder and lead-free electrically conductive adhesives. Isothermal aging shows that the microstructure of soldered joints is submitted to significant changes such as intermetallic compounds growth (Ag3 Sn, Cu3 Sn, Cu6 Sn5) and, compared to glued joints, seem to influence the electrical performances of PV modules. The long-term stability is analyzed by thermal cycling of small-scale PV modules. Modular integration has been shown to be possible for both alternatives, about 80 % of the modules tested have successfully passed the thermal cycling test (power loss less than 5%).
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