Multiple Environment Overstress Testing and modelling of solar cells

E. Veninga, A. Gielen
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Abstract

Solar modules are typically qualified by conducting a sequence of industry standard tests, for example IEC 61215 and 61646. Although these tests are thorough and therefore also time consuming, the results cannot be used to determine the lifetime or make inferences about lifetime of the modules [1]. New approaches are needed to fulfil requirements as designed lifetime - typically 25 years - and time-to-market reduction. To this end we have developed a novel approach that is based on both physical testing and finite element modelling (figure 1) to increase the understanding of how parts fail and how to improve designs. Physical and numerical experiments are used in a combined way appreciating the strengths and weaknesses of both.
太阳能电池的多环境超应力测试与建模
太阳能组件通常通过进行一系列行业标准测试(例如IEC 61215和61646)来合格。尽管这些测试非常彻底,因此也很耗时,但测试结果不能用于确定模块[1]的生命周期或推断其生命周期。需要新的方法来满足设计寿命(通常为25年)和缩短上市时间的要求。为此,我们开发了一种基于物理测试和有限元建模的新方法(图1),以增加对零件失效原因和如何改进设计的理解。将物理实验和数值实验相结合,了解两者的优缺点。
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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