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Reducing PV module temperature with radiation based PV module incorporating composite phase change material

机译:用基于辐射的PV模块降低PV模块温度,包括复合相变材料

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摘要

Temperature reduction in a photovoltaic module can improve its efficiency. This paper presents a radiation based photovoltaic module cooled by using composite phase change material that are not in direct contact with the photovoltaic module. A thermal heat transfer network is developed which improves efficiency of the photovoltaic module by using radiation mode to eliminate the issue of phase change material re-conduction, thereby controlling excess thermal energy stagnation in the module. Pure phase change material and composite phase change material are investigated and compared by integrating them 0.6 cm behind the photovoltaic module and performing simulations to determine the optimal thickness of the phase change material matrix. It was found that by using composite phase change material, the thermal resistance between the photovoltaic and the phase change material could be reduced and the photovoltaic module temperature decreased, due to the higher thermal conductivity of the composite phase change material. The simulated efficiency and temperature of the photovoltaic module with composite phase change material installed at the optimum thickness of 2.5 cm were 14.75% and 47.81 C, respectively. The numerical simulation of the new PV-PCM setup was validated experimentally, and simulation results were accurate within an average of 0.4 C.
机译:光伏模块中的温度降低可以提高其效率。本文介绍了通过使用不与光伏模块直接接触的复合相变材料冷却的基于辐射的光伏模块。开发了热传热网络,其通过使用辐射模式来提高光伏模块的效率,以消除相变材料重新传导的问题,从而控制模块中的过度热能停滞。通过将0.6厘米在光伏模块后面与它们的模拟相加并进行模拟来研究纯相变材料和复合相变材料,以确定相变材料矩阵的最佳厚度。发现,由于复合相变材料的导热率较高,通过使用复合相变材料,可以减小光伏和相变材料之间的热阻,并且光伏模块温度降低。具有以2.5cm最佳厚度安装的复合相变材料的光伏模块的模拟效率和温度分别为14.75%和47.81℃。通过实验验证了新的PV-PCM设置的数值模拟,仿真结果平均准确为0.4℃。

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