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Analysis of Energy-saving Effect of Rail Transit Control Center with New Type Photovoltaic Wall |
LIU Yang |
The Third Railway Survey and Design Institute Group Corporation,Tianjin 300000,China |
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Abstract Research purposes: Taking a planned rail transit control center that will use the BIPV/T technology as the study object and aiming at its differences from the conventional public buildings,this paper deeply studies the energy- saving effect by using the BIPV/T technology with the FLUENT and TRNSYS software to evaluate the energy-saving effect of the building.
Research conclusions: From the comparison and analysis it is concluded: (1)The annual generating capacity of the BIPV/T wall of the control center can be up to 128. 94 MWh.(2)The air-conditioning load for the BIPV/T wall of the control center can be much reduced by 4. 91 MWh in summer, dropping of 10. 21%.(3)The air-conditioning load for the BIPV/T wall of the control center can be reduced by 4. 48 MWh,dropping of 4. 15 %.(4)The heat production of the BIPV/T wall in winter can preheat the fresh air and it can effectively reduce the outdoor air heating load by 45. 18 MWh,dropping of 18. 11%.(5)This study result can provide the reference to the reasonable design and application of the BIPV/T technology for the special building like the control center of rail transit.
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Received: 10 April 2013
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[1]龙文志.光电光热建筑一体化(BIPVT )概论[J].中国建筑金属结构,2009(9):35-43.
Long Wenzhi. Building Integrated Photovoltaic and solar Thermal introduction[J].China Construction Metal Structure , 2009 ( 9 ) : 35-43.
[2]Gan G , Riffat SB. CFD Modelling of Air Flow and Thermal Performance of an Atrium Integrated with Photo Voltaics [J].Building and Environment , 2004 (39):735-748.
[3]Mei L , Infield D , Eicker U , etc. Thermal Modelling of a Building with an Integrated Ventilated PV Facade [J] .Energy and Buildings , 2003 ( 35 ) : 605-617.
[4]Zogou O , Stapountzis H. Energy Analysis of an Improved Concept of Integrated PV Panels in an Offlice Building in Central Greece [ J ].Applied Energy,2011 (88):853-866.
[5]何伟,季杰.光伏光热建筑一体化对建筑节能影响的理论研究[J].暖通空调,2003(33):8-11.
He Wei, Ji Jie. Theoretical Study of Photovoltaic/ Thermal Integrated Buildings on Energy Effticiency [ J ]. HV&AC, 2003(33) :8-11.
[6]安文韬,刘彦丰.太阳能光伏光热建筑一体化系统的研究[J].应用能源技术,2007(11):33-39.
An Wentao, Liu Yanfeng. The Study of Photovoltaic/ Thermal Integrated Buildings Solar System [ J ] . Applied Energy Technology, 2007(11):33-39.
[7]王兆宇,艾竿.太阳能光伏建筑一体化技术的应用分析 [J]·华东电力,2011(39):477-481.
Wang Zhaoyu, Ai Qian. Application Analysis of the Building Integrated Photovoltaic(BIPV)Systems[J]. East China Electric Power , 2011( 39 ) : 477-481.
[8]郭欢,陈峰.城市轨道交通资源共享研究[J].铁道工程 学报,2010(1):99-103.
Guo Huan , Chen Feng. Research on the Resource Sharing of Urban Mass Transit [ J ].Journal of Railway Engineering Society,2010(1):99-103.
[9]付建东.深圳皇岗地铁口岸联检楼铝板-玻璃幕墙外墙 围护结构节能设计及施工[J].墙材革新与建筑节能, 2006(7):48-50.
Fu Jiandong. Inspection Building Aluminum Glass Curtain Wall Exterior Building Envelope Energy- saving Design and Construction of Huanggang Port in Shenzhen Subway[J].Wall Materials Innovation& Energy Saving in Buildings , 2006 ( 7 ) : 48-50.
[10 ] The University of Wisconsin Solar Energy Laboratory. TRNSYS 16 Documentation [ M ].US : TRNSYS Group , 2007.
[11]Thermal Energy Systems Specialists ( TESS ) . TRNSYS 16 TESS Library Documentation [M].US: TESS, 2007.
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