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Spectral Sensitivity of Simulated Photovoltaic Module Soiling for a Variety of Synthesized Soil Types

机译:各种合成土壤类型的模拟光伏组件污染的光谱敏感性

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The accumulation of soil on photovoltaic (PV) modules may introduce a spectral loss due to the color profile of the accumulated material. In order to compare the spectral and total losses experienced by a cell, soil analogs were formulated to contain common mineral pigments (Fe$_2$O $_{3}$ and göthite) with previously developed “standard grime” mixtures. These mixtures simulated a wide range of desert soil colors and were applied to glass test coupons. The light transmission through the deposited film was evaluated by UV/vis/NIR spectroscopy and by placing the coupon over a test cell in a 1-sun simulator and quantum efficiency test stand. Distinct peaks in the 300–600-nm range were observed by UV/vis/NIR spectroscopy corresponding to the Fe$_{2}$ O$_{3}$ and göthite. Approximately analogous features were noted in the QE measurement. Overall comparisons were made by integrating the response of a soiled coupon relative to a clean reference. Soils rich in red pigments (Fe$_{2}$ O$_{3}$) caused a greater integrated response than soils rich in yellow pigment (göthite). The yellow soils caused a greater attenuation in a specific region of the spectrum (300–450 nm), which may have significant implications to specific devices, such as multijunction and CdTe technologies.
机译:由于光伏材料(PV)的颜色分布,土壤在光伏(PV)模块上的堆积可能会导致光谱损失。为了比较细胞遭受的光谱损失和总损失,配制了土壤类似物以包含常见的矿物颜料(Fe $ _2 $ O $ _ {3} $和göthite)和以前开发的“标准污垢”混合物。这些混合物模拟了各种各样的沙漠土壤颜色,并应用于玻璃测试样。通过UV / vis / NIR光谱,以及将试样放在1-sun模拟器和量子效率测试台中的测试单元上方,评估通过沉积膜的光透射率。通过UV / vis / NIR光谱观察到300-600 nm范围内的明显峰,分别对应于Fe $ _ {2} $ O $ _ {3} $和göthite。 QE测量中记录了近似类似的特征。整体比较是通过将脏试样相对于干净参比的响应进行积分来进行的。富含红色颜料(Fe $ _ {2} $ O $ _ {3} $)的土壤比富含黄色颜料(göthite)的土壤产生更大的综合响应。黄色土壤在光谱的特定区域(300-450 nm)引起更大的衰减,这可能对特定设备(例如多结和CdTe技术)产生重大影响。

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