南非半干旱地区单轴跟踪光伏组件降尘策略的应用

A. D. Plessis, J. Strauss, A. Rix
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引用次数: 4

摘要

本文提供了单轴跟踪器(SAT)光伏(PV)模块在南非半干旱的北开普省环境下的现场生成数据。研究目的是研究粉尘污染对光伏组件性能的影响以及实验降尘方法的应用。这包括使用疏水防污涂层,以及由SAT系统执行自清洁操作。部署了两个SAT系统作为实验平台,从中获得为期三个月(97天)的数据。根据IEC61724标准,通过全面的天气监测(环境温度、风速、风向、降雨量、压力和湿度)、辐照度和光伏组件背片温度记录,建立原始数据验证。使用智能装置从单个光伏模块中提取电流-电压(I-V)曲线。PV组件的最大输出功率来自测量的I-V曲线,并通过单二极管曲线拟合程序进行验证。通过性能比(PR)对不同光伏组件进行比较研究,PR定义为光伏组件的温度和辐照度校正后的性能因子。与最初的假设相反,结果表明疏水涂层实际上促进了粉尘的污染。应用自清洁能力的SAT系统没有产生任何结论性的结果,作为一种减少灰尘的方法。最后,讨论了有趣的现场观察结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Application of Dust Mitigation Strategies to Single-Axis-Tracking Photovoltaic Modules in the Semi-Arid Areas of South Africa
This paper provides field generated data for single-axis-tracker (SAT) photo voltaic (PV) modules subjected to the semi-arid Northern Cape environment of South Africa. The research objectives are the investigation of the effects of dust soiling on PV module performance and the application of experimental dust mitigation methods. This includes the use of a hydrophobic anti-soiling coating and also the execution of a self-cleaning manoeuvre by the SAT systems. Two SAT systems were deployed to serve as experimental platform, from which data was obtained for a three month period (97 days). Raw data validation is established with comprehensive weather monitoring (ambient temperature, wind speed, wind direction, rainfall, pressure, and humidity), irradiance and PV module back sheet temperatures recorded, in accordance with the IEC61724 standard. An intelligent device was used to extract Current-Voltage (I-V) curves from individual PV modules. Maximum PV module power output is derived from the measured I-V curves, validated with a single-diode curve fitting routine. The comparative study between the different PV modules is done with a performance ratio (PR), defined as the temperature and irradiance corrected performance factor of a PV module. Contrary to the initial hypothesis, results indicated that the hydrophobic coating actually promoted dust soiling. The applied self-cleaning capability of the SAT system did not yield any conclusive results as a dust mitigation method. Finally, interesting in-field observations are discussed.
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