钙钛矿光伏技术的室外性能

Esteban Velilla Hernandez, Juan Bernardo Cano Quintero, Juan Felipe Montoya, I. Mora‐Seró, Franklin Jaramillo Isaza
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引用次数: 1

摘要

就钙钛矿等新兴光伏技术而言,大多数已发表的作品都集中在实验室规模的电池,室内条件下,没有完全建立和采用国际标准。因此,本章简要介绍了自然光照条件下钙钛矿太阳能微型组件的标准和评价方法。因此,我们建议从功率方面评估室外性能,按照国际标准IEC 61853-1,根据额定功率条件获得性能。经过一些严格的实验评估,结果表明,所分析的微型模块的最大功率(Pmax)演变可以与文献中常用的三种退化过程模式之一相关联,称为凸、线性和凹。这些模式被用来估计降解率和寿命(T80)。此外,从开路电压(Voc)对辐照度和环境温度(室外数据)的依赖中估计理想因子(nID),以提供对暴露期间主导性能的重组机制的物理见解。在这种情况下,观察到Pmax的三种不同降解模式也可以通过nID识别。最后,基于T80与首次达到nID = 2的时间(TnID2)之间的线性关系,证明了nID分析可以为该技术的户外发展提供重要的补充信息,因为nID的变化可能与设备中发生的重组机制和降解过程相关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Outdoor Performance of Perovskite Photovoltaic Technology
In the case of emerging photovoltaic technologies such as perovskite, most published works have focused on laboratory-scale cells, indoor conditions and no international standards have been fully established and adopted. Accordingly, this chapter shows a brief introduction on the standards and evaluation methods for perovskite solar minimodules under natural sunlight conditions. Therefore, we propose evaluating the outdoor performance in terms of power, following the international standard IEC 61853–1 to obtain the performance according to the power rating conditions. After some rigorous experimental evaluations, results shown that the maximum power (Pmax) evolution for the analyzed minimodules could be correlated with one of the three patterns commonly described for degradation processes in the literature, named convex, linear, and concave. These patterns were used to estimate the degradation rate and lifetime (T80). Moreover, ideality factor (nID) was estimated from the open-circuit voltage (Voc) dependence on irradiance and ambient temperature (outdoor data) to provide physical insight into the recombination mechanism dominating the performance during the exposure. In this context, it was observed that the three different degradation patterns identified for Pmax can also be identified by nID. Finally, based on the linear relationship between T80 and the time to first reach nID = 2 (TnID2), is demonstrated that nID analysis could offer important complementary information with important implications for this technology outdoor development, due that the changes in nID could be correlated with the recombination mechanisms and degradation processes occurring in the device.
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