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太阳能光伏电池在聚光条件下冷却方式的研究 被引量:12

The Cooling Way Research of Solar Cells in Concentration
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摘要 目的研究太阳能电池的冷却方式,提高太阳能电池在聚光条件下的工作效率.方法利用FLUNT大型分析软件模拟出聚光条件下电池板在不同冷却方式下的工作温度,并通过实验验证.结果有翅片轴流式冷却比不带翅片轴流式冷却温度低35-40℃,功率输出提高了15%;比带翅片的自然风冷却温度低50-60℃,功率输出提高了40%;比无翅片的自然风散热低100℃,输出功率提高了近70%.结论光伏电池在聚光条件下,带翅片有风扇的轴流式冷却方式效果明显,大幅度提高电池的输出功率,为聚光光伏发电的广泛应用提供了良好的基础. To research the way of cooling system of solar cells in order to enhance the working efficiency of solar cells in concentration. The working temperature of different cooling modes of solar cells in concentration was simulated using FLUNT common software and the effective working way of cooling was discussed with experiment and simulation. The temperature of the cooling effect of having wings and having fans is comparatively approximately 35 - 40℃ lower than the temperature of that not having wings and having fans, the power output enhanced by 15 %, that is comparatively 50 - 60℃ lower than the temperature of that having wings natural wind cooling, the power output enhanced by 40 %, that is comparatively 100℃ lower than the temperature of that not having wings natural wind to radiate, the output enhanced by 70 %. The effect of the cooling of having wings and having fans of photovoltaic ceils in concentration is obvious, and this way can raise cell's output largely and provide a good foundation for the winder use of photovoltaic in concentration.
出处 《沈阳建筑大学学报(自然科学版)》 EI CAS 2008年第6期1091-1093,1098,共4页 Journal of Shenyang Jianzhu University:Natural Science
基金 国家863计划项目(2006AA050203) 建设部科学技术项目(2008-k6-12)
关键词 太阳能电池 风冷却 工作温度 聚光 solar cell wind cooling working temperature concentrating
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  • 1谭文胜,李子钧,项品义,章立新.密闭式冷却塔的优化设计[J].工程建设与设计,2006(2):42-43. 被引量:7
  • 2[3]Hirata Y, Inasaka T,Tani T.Output variation of photovoltaic moduleswith environmental factors-Ⅱ:Seasonal variation[J].Solar Energy,1998,63(3):185-189.
  • 3[4]Brinkworth B J,Cross B M,Marshall R H,et al.Thermal Regulation of photovoltaic cladding[J].Solar Energy,1997,61(3):169-178.
  • 4[5]Pontikakis N,Harrison S J.Investigation of wind-induced convective heat transfer coefficient on solar collectors[A].Proc of the solar Sun'99[C].Edmonton,Canada,1999,August,140-145.
  • 5[6]Vliet G C,Ross D C.Turbulent natural convection on upward and downward facing inclined heat flux surfaces[J].Transaction of ASME,Heat Transfer,1975.97:549-555.
  • 6[7]Elsherbiny S M,Raithby,Hollands K G T.Heat transfer by natural convection across vertical and inclined air layers[J]. Transaction of ASME,Heat Transfer,1982,104(1):96-102.
  • 7[1]Haas R,Ornetzeder M,Hametner K.Socio-economic aspect of the Austrian 200 kWP photovoltaic-roof top programme[J].Solar Energy.1999.66(3):183-191.
  • 8[2]Yoo S H,Lee E T.Lee J K.Building integrated photovoltaics:a Korean case study[J].Solar Energy,1998.64(4):151-161.
  • 9Goswami Dave,Reveliotty C N.Free cooling by cooling tower water[J].ASHRAE,1987(1):32-37.
  • 10John C Hensley.The application of cooling towers for free cooling[J].ASHRAE,1994,7(3):817-823.

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