GCC地区PVT水系统的一种新的数值模拟模型

T. Salameh, M. Tawalbeh, A. Juaidi, Ramez Abdallah, S. Issa, A. Alami
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引用次数: 28

摘要

PV-热混合系统(PV/T)用于从太阳辐射中获取电能和热能。使用混合PV/T系统提高了PV模块的电效率,而热能可用于各种加热应用。这项工作的目的是数值研究PV/T系统在炎热气候条件下的性能。PV/T的冷却系统由几个相互平行的通道组成。采用一种新颖的三维数值模拟方法研究了该系统的热效率。模拟过程中采用标准k-epsilon湍流模型。该系统是基于在一个通道两侧应用不同的热边界条件,而不是模拟整个冷却系统。使用一个通道模拟允许创建较少数量的网格,因此,减少了计算时间。采用叠加法计算了不同质量流量下PV/T系统的热效率。结果表明,通过将质量流量从0.4 ~ 5.4 L/min增加,热效率从60%提高到68%。这些结果与文献中的结果很好地吻合。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A novel numerical simulation model for the PVT water system in the GCC region
Hybrid PV- thermal system (PV/T) is used to harvest both electrical and thermal energy from solar radiation. Using a hybrid PV/T system improves the electrical efficiency of the PV module while the thermal energy can be used for various heating applications. The aim of this work is to numerically study the performance of the PV/T system in a hot climate condition. The cooling system of PV/T consists of several channels parallel to each other. A novel three-dimensional numerical simulation of the system was performed to study the thermal efficiency. The standard k-epsilon turbulence model was used during the simulation. This novel system was based on applying different thermal boundary conditions on the sides of one channel rather than simulating the whole cooling system. Using one channel simulation allows the creation of a smaller number of meshes, hence, reduces the computational time. The thermal efficiency of the PV/T system was calculated using the superposition method for different mass flow rates. The results showed an increase in the thermal efficiency from 60% up to 68% by increasing the mass flow rates from 0.4 - 5.4 L/min. These results were in good agreement with the results in the literature.
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