Performance Analysis of Bi-fluid Photovoltaic/ Thermal (PV/T) Solar Collector

O. E. Manssouri, C. E. Fouas, B. Hajji, L. Bouselham, A. Rabhi, G. Marco Tina, A. Gagliano
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引用次数: 1

Abstract

Compared to conventional PV/T solar collector, the bi-fluid PV/$T$ type enables to extract more heat producing hot air and hot water and thus increasing the total efficiency per unit of area. The use of both fluids leads to provide a variety of PV/$T$ thermal applications. In this paper, a mathematical modeling of a bi-fluid photovoltaic/thermal PV/$T$ solar collector type is developed and simulation was performed using MATLAB software. Furthermore, a performances comparison is carried out for four bi-fluid PV/$T$ collectors using different cooling fluid (eg.air,water) in simultaneous operating mode. In this context, the temperature distribution in different collectors layers, electric power generation efficiency and thermal power efficiency are evaluated and analyzed. According to obtained results, water- water cooled PV/$T$ collector proves a good effectiveness and reaches a higher electrical and thermal efficiency respectively of 11.16 % and 54.22%. This bi-fluid type is considered as the most provider of hot water in contrary to Air-air cooled PV/$T$ witch providing more hot air.
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双流体光伏/热(PV/T)太阳能集热器性能分析
与传统的PV/T太阳能集热器相比,双流体PV/T类型能够提取更多产生热量的热空气和热水,从而提高单位面积的总效率。这两种流体的使用可以提供各种PV/$T$热应用。本文建立了双流体光伏/热PV/$T$太阳能集热器的数学模型,并利用MATLAB软件进行了仿真。此外,在同时运行模式下,对使用不同冷却流体(如空气、水)的四种双流体PV/$T$集热器进行了性能比较。在此背景下,评估和分析了不同集热器层的温度分布、发电效率和热电效率。结果表明,水冷式PV/ T集热器具有良好的集热器效率,电效率和热效率分别达到11.16%和54.22%。这种双流体类型被认为是热水的最大提供者,而不是空气-空气冷却PV/$T$巫婆提供更多的热空气。
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