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Feasibility of water-cooled photovoltaic panels under the efficiency and durability aspects

机译:效率和耐久性方面下水冷光伏板的可行性

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摘要

Photovoltaic (PV) panels can increase their efficiency and durability by using water-cooled systems. In this paper, the authors present a methodology to establish the degradation rate (DR) of PV panels related to their durability and efficiency under cooled versus no-cooled conditions. A long-term feasibility analysis of PV power plants with some suggested modifications are discussed in detail. A standard system was designed to cool down the PV modules. The simulations used with this purpose are based on several publications with relevant aspects carried out in the literature using Matlab-based modeling data. Such results were then confirmed by Homer program to predict the efficiency and durability of PV panels within a lifetime period of 25 years. To illustrate the methodology proposed here, the simulation parameters were used for the city of Santa Maria-RS, Brazil. The results allowed to conclude that cooling combined with heated water for domestic usage can decrease the PV degradation rate by 3% and provide an increased efficiency by almost 30% with respect to the PV panels without such cooling approaches. Therefore, the final results conclude that installation of water-cooled PV panels is an attractive and feasible option for a short- and long-term efficiency improvement with great impact on the expansion and durability of PV power plants.
机译:光伏(PV)面板可以通过使用水冷系统来提高其效率和耐用性。在本文中,作者提出了一种方法来确定与其耐用性和效率相关的PV面板的降解速率(DR)与无冷却条件。详细讨论了具有一些建议修改的PV发电厂的长期可行性分析。标准系统设计用于冷却光伏模块。使用此目的的模拟基于几种出版物,其中使用基于MATLAB的建模数据在文献中进行的相关方面。然后通过HOMER计划确认这些结果以预测PV面板在25年的寿命期内的效率和耐久性。为了说明这里提出的方法,模拟参数用于巴西圣玛丽亚-RS城市。所允许的结果得出结论,冷却与家用使用的加热水结合可以将PV降解速率降低3%,并且在没有这种冷却方法的情况下,相对于光伏电影板提供近30%的效率。因此,最终结果得出结论,水冷式光伏电池板的安装是一种有吸引力和可行的选择,对于短期和长期效率的改善,对光伏发电厂的扩展和耐用性的影响很大。

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