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首页> 外文期刊>International Journal of Energy and Power Engineering >Experiment and Simulation Study on Silicon Oil Immersion Cooling Densely-Packed Solar Cells Under High Concentration Ratio
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Experiment and Simulation Study on Silicon Oil Immersion Cooling Densely-Packed Solar Cells Under High Concentration Ratio

机译:高浓度比硅油浸没冷却致密包装太阳能电池的实验与仿真研究

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摘要

In order to solve the heat dissipation problem of densely-packed solar cells in high concentration photovoltaic (HCPV) system, a new cooling method of using silicon oil directly immerse the solar cells was proposed. The heat transfer performance of silicon oil immersion cooling the densely-packed solar cells with and without fin structure was investigated through experiment and simulation methods. The results of heat transfer performance of solar cells without fin structure showed that the simulated data was consistent well with data of experiment and the temperature could be lowered down in the operation range of solar cell. Furthermore, the heat transfer performance of solar cells with fin structure was researched using the model under different silicon oil inlet temperatures, inlet flow rates and the flow pressure drop was measured. The results indicated that the solar cells temperature declined and distributed well with silicon oil inlet flow rate increasing but the solar cells temperature raised linearly with silicon oil inlet temperature increasing. The optimized parameters of cooling receiver with fin structure were that: height of fin was 14 mm, number of fin was 50 and the thickness of substrate was 1.5 mm, with which the large amount of heat of densely-packed solar cells under high concentration ratio could be well controlled and make sure the power generation of HCPV system was high efficient.
机译:为了解决高浓度光伏(HCPV)系统中密堆太阳能电池的散热问题,提出了一种采用硅油直接浸入太阳能电池的新冷却方法。通过实验和模拟方法研究了硅油浸没冷却密集结构太阳能电池的散热性能。无翅片结构的太阳能电池的传热性能结果表明,模拟数据与实验数据吻合良好,可以在太阳能电池的工作范围内降低温度。此外,利用该模型研究了翅片结构太阳能电池在不同硅油入口温度,入口流速和流动压降下的传热性能。结果表明,随着硅油入口流量的增加,太阳能电池温度下降,分布均匀,但随着硅油入口温度的增加,太阳能电池温度呈线性上升。翅片结构冷却接收器的优化参数为:翅片高度为14mm,翅片数为50,基板厚度为1.5mm,在高浓度比下密集封装的太阳能电池产生大量热量可以很好地控制并确保HCPV系统的发电高效。

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