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太阳能建筑整合设计对策研究
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摘要
在能源日益紧张的今天,太阳能建筑以其生态、可持续性的优势拥有广阔的发展前景,并日益成为一种新的建筑理念和方法。但目前的设计中仍沿用着传统的线性思维,或仅简单的附加太阳能设备,如何提高太阳能建筑的整体效益,将“整合”思想融入到太阳能建筑设计中去,成为亟待解决的问题。本文将针对太阳能建筑的现状和存在的问题,对太阳能建筑的整合设计进行研究,探讨太阳能技术如何在节能、舒适、经济的前提下与建筑整合并实现整体优化的问题。
     本文从以下四个方面展开研究:
     首先,作者借鉴各学科的整合思想,对建筑整合设计的基本问题进行了梳理,提出整合设计的基本概念。对太阳能建筑整合设计的理论框架展开研究,分析了太阳能建筑整合设计的要素及相关特征,提出整合设计的两大支柱理论:梯度理论和共生理论。作者发现在太阳能建筑整合设计中具有生态设计和可持续设计的一般原则,同时整合设计还具有自身特殊性目标、原则和设计方法。通过对上述问题的深入剖析,建立了太阳能建筑整合设计的理论研究框架。
     其次,以梯度理论为背景,研究了建筑界面与空间在太阳热能的流动过程中所起的作用,并针对特定区域——夏热冬冷地区的建筑需求提出了太阳能建筑的梯度整合设计策略。
     再次,以共生理论为背景,研究了不同共生单元——主、被动太阳能技术、太阳能技术与建筑、建筑与环境——间的共生关系,提出了间歇共生、连续共生两种整合设计的组织模式,以及三种以质参量兼容为条件的共生整合设计策略。通过实例分析和模拟研究对太阳能建筑共生整合设计模式进行探讨,并对各类共生整合设计模式的整合效益优化程度进行了分析和比较,通过对太阳能建筑性能的综合分析得到了太阳能建筑共生整合的设计策略。
     最后,以经济学比较优势和机会成本理论为背景,构建了太阳能建筑整合效益衡量的指标体系,并以此为指导,提出了太阳能建筑整合设计对策。
Today, energy is intense increasingly. There is a broad prospect for development for the solar architecture because of its energy alternatives advantagment, and has increasingly become a new architectural concept and method. But the design was in the traditional linear thinking, or only a simple additional solar energy equipment. It becomes the urgent issues to how to improve the overall efficiency of solar building and how to put "integrated thinking”into the design of solar building. This paper will address the status of solar building and the existing problems, study the integration of solar building design and how to integrate the solar technology into the building, ion and realize the overall optimization under the prerequisite of energy-saving, comfort and economic.
     First, the basic building design integration issues were combing the integration from the integration ideology of various disciplines and the basic concept of integrated design was put forward. Author analysis the solar building design integrated theoretical framework in-depth and found three relationships that exist in the construction elements and solar energy technology elements:
     competition, symbiotic relationship and attachment. The difference between these three can be graded according to Gradient theory, Symbiotic theory and Collaborative theory to build synergy and realize of the effective of integration. The author also found in the building integrated solar design of eco-design and the general principles of sustainable design, integrated design also has its own special-network structure. Through in-depth analysis of these issues, the general design process of integrated solar building has been given.
     Secondly, in the the background of Gradient theory, the competition between the heat space and the architectural space were researched, the thermal properties of the two were in-depth analysised. There are two basic forms of radiation over both the passage of heat transfer and linear And in the hot summer and cold winter weather conditions in the two basic forms of different combinations of the change and energy efficiency were analysised and comparised. Through the heat, wind environmental performance of comprehensive analysis the space integrated design strategy was gutted able to meet the flow gradient.
     Again, in the the background of Symbiotic theory, the symbiotic relationship between active and passive solar energy technology and construction interface were researched. And three models of symbiotic integration were made. Respectively examples and simulation of the solar building symbiotic interface explore ways and means to build and all types of symbiotic interface of the extent to optimize the effectiveness of the analysis and comparison. Through the heat, wind, light environment of the comprehensive analysis, the solar building design interface integration strategy were gutted.
     Finally, in the the background of Synergistic theory as the background, the attachment relationship between the active solar energy technology and construction interface and space were researched. As an example for the collector, the construction of functional design, structural safety and life, thermal properties, landscape, Solar system capacity, efficiency, maintainability, and other contradictions were discussed. In the three levels of physical, visual, performance, active solar technology integration designed strategies were gutted.
引文
1何伟骥.夏热冬冷地区太阳能利用与建筑整合设计策略研究.浙江大学硕士学位论文. 2007: 3~12
    2李汉章.建筑节能技术指南.中国建筑工业出版社, 2006: 6
    3姚润明等.可持续城市与建筑设计.中国建筑工业出版社, 2006
    4李保峰.适应夏热冬冷地区气候的建筑表皮之可变化设计策略研究.清华大学博士学位论文. 2006: 257
    5韩林飞.太阳能——城市与建筑可持续发展的能量之源.建筑学报. 2000,(9): 18~19
    6聂梅生.正本清源——中国绿色生态住.中国环保产业. 2004年6月
    7 Donald W. Aitken.国际太阳能学会白皮书
    8 [美]哈特曼.古老阳光的末日:抢救地球资源.上海远东出版社, 2005
    9 [日]彰国社.被动式太阳能建筑设计.中国建筑工业出版社, 2004: 13, 71
    10加腾义夫.被动式太阳能建筑设计实践.世界建筑. 1998, (1)
    11付祥钊.夏热冬冷地区建筑节能技术.中国建筑工业出版社, 2004
    12 Belinda Reeder. Passive solar buildings. University Press of the Pacific. 1992
    13仲继寿.向太阳能索取,为人类造福.建筑学报. 2006, (3)
    14邱仁宗.科学理论评价的双标尺系统和整合观.自然辩证法通讯. 1985, (4)
    15张有道.什么是整合.语文建设. 1999, (4)
    16石渤主编.英汉-汉英文献信息辞典.武汉大学出版社, 1996: 24
    17刘世同主编.全新多用当代英汉双解大辞典[中].学苑出版社2002: 1016
    18陆谷孙主编.英汉大词典[上卷] .上海译文出版社, 1989: 1689
    19中国大百科全书-社会学卷.中国大百科全书出版社, 1986: 575
    20帕森斯.社会体系和行动理论的演进.北京:人民出版社, 1977
    21李喜先.技术系统论.科学出版社, 2005: 70~83
    22 ColinPorteous.The New Eeo-Arehiteeture: Alternatives from the Modern Movement. SPon Press. 2002
    23查尔斯·詹克斯,卡尔·克罗普夫.当代建筑的理论和宣言.中国建筑工业出版社, 2005: 134
    24伦纳德R.贝奇曼.整合建筑:建筑学的系统要素.机械工业出版社, 2005: 16~30
    25 http://www.yonton.com/newsread.asp?id=446
    26孙喆.夏热冬冷地区多层住宅被动式太阳能设计策略研究.华中科技大学硕士论文. 2005: 63~69
    27李振海.上海市住宅建筑夏季室内热湿环境状况调查.制冷技术. 2005, (3): 13~16
    28 Ursula Eicker. Solar technologies for buildings. John Wiley & Sons. 2003: 174
    29 Simos Yannos. Solar energy and housing design. AA Publications. 2006
    30 Lars Andren. Solar installations: practical applications for the built environment. Earthscan. 2003
    31 Friedrich Sick and Thomas Erge. Photovoltaics in buildings: A Handbook for Architects and Engineers. Earthscan. 1996
    32 D. Yogi Goswami. Principles of solar engineering. Taylor & Francis. 2000
    33 Christian Schittich.In Detail:Solar Architecture-Strategies Visions Concepts. Birkhauser. 2003
    34 Terry Galloway. Solar house: A guide for the solar designe. Architectural Press. 2004
    35 Thomas Herzog. Solar Energy in Architecture and Urban Planning. Prestel Publishing. 1996
    36 Timothy Caleb and Carew Hillman. Cost and benefit analysis of cold climate solar water heating systems. ProQuest / UMI. 2006: 102
    37 James Kachadorian. Passive Solar House: The Complete Guide to Heating and Cooling Your Home. Chelsea Green Publishing Company. 2006
    38 Commissariat A. L'energie Solaire. Survey of European Passive Solar Buildings. University Press of the Pacific. 2005: 18~24
    39 Howard C. Hayden. The Solar Fraud: Why Solar Energy Won't Run the World, (Second Edition). Vales lake Publishing, LLC. 2005
    40 Solar Energy Applications Laboratory, Colorado State University. Solar Heating And Cooling of Residential Buildings: Design of Systems.University Press of the Pacific. 2005
    41 Robert Hastings and Maria Wall. Sustainable Solar Housing, Volume 1: Strategies and Solutions. Earthscan. 2007: 42
    42 Robert Hastings and Maria Wall. Sustainable Solar Housing, Volume 2: Exemplary Buildings and Technologies. Earthscan. 2007
    43 Tomm Stanley. Going Solar: Understanding and Using The Warmth In Sunlight. Stonefield Publishing. 2005
    44 U. S. Department of Energy. The First Passive Solar Home Awards. University Press of the Pacific. 2005
    45 Werner Weiss. Solar Heating Systems for Houses: A Design Handbook for Solar Combisystems. Earthscan. 2004
    46 Peter Buchanan. Ten Shades of Green: Architecture and the Natural World. W. W. Norton. 2005: 51~88
    47 Alanna Stang and Christopher Hawthorne. The Green House: New Directions in Sustainable Architecture. Princeton Architectural Press. 2005
    48王万江.试论被动式太阳房的发展.新疆工学院学报. 199806: 111~114
    49仲继寿.太阳能建筑的技术途径和发展策略.建筑学报. 2004.9
    50李元哲.促进太阳能在建筑中的应用——被动式太阳房有关国家标准修订.中国住宅设施. 2003, (02): 52
    51叶凌,姚杨,王清勤.节能建筑评价指标体系初探.建筑科学.第22卷第6A期. 2006年12月: 25~29
    52 [美]琳达·格鲁特,大卫·王编著,王晓梅译.建筑学的研究方法.机械工业出版社, 2005: 346
    53王崇杰.论太阳能建筑一体化设计.建筑学报. 2002, (7)
    54高辉.太阳能建筑集成设计.华中建筑. 2004, (01): 56~57
    55仲继寿.住宅建筑太阳能热水系统整合设计.中国建筑工业出版社, 2006: 43
    56严庆.解读“整合”与“民族整合”.民族研究. 2006, (4)
    57阿尔温德·克里尚等编,刘加平等译.建筑节能设计手册——气候与建筑.中国建筑工业出版社, 2005: 24
    58 Sopia & Stenfan Behling. Sol Power. New York: A Publication for READ Group. 1996: 233
    59 http://www.yonton.com/newsread.asp?id=446
    60 http://www.geni.org/.../globalmaps.shtml
    61王馄等.夏热冬冷地区生态建筑节能建筑的应用探讨.四川建筑. 2005(2):55
    62罗运俊等.太阳能利用技术.化学工业出版社, 2005: 217~246
    63陈会娟.热质作用下被动太阳能建筑的热性能研究.大连理工大学硕士论文. 2006: 13
    64 Bruce Anderson. Solar Building Architecture. The MIT Press, 1990: 199~306
    65方荣生等.太阳能应用技术.中国农业机械出版社, 1985: 279~285
    66 [日]宫宇地一彦著,马俊、里妍译.建筑设计的构思方法-拓展设计思路.建筑工业出版社, 2006: 192
    67欧文·拉兹洛.系统哲学引论——一种当代思想的新范式.商务印书馆. 1998
    68克里斯托弗·亚历山大.严小婴译.城市并非树型.建筑师.第24期
    69 M·金俊.理想景观:城市景观空间系统建构与整合设计.东南大学出版社, 2003
    70 [英]约翰·齐曼编,孙喜杰译.技术创新进化论.上海科技教育出版社, 2002: 64
    71付祥钊、冯雅、张智强等.建筑节能技术.中国建筑工业出版社出版. 2004: 23
    72茅于轼.生活中的经济学(第二版).暨南大学出版社. 2003
    73托马斯·赫尔佐格.吴蔚译.从太阳能设计到城市设计.建筑学报. 2002, (12): 9
    74李辉.楼宇复合能量系统的应用研究.能源技术. 2006, (10): 22
    75 [英]卡彭.建筑理论(上):维特鲁威的谬误——建筑学与哲学的范畴史.中国建筑工业出版社, 2006: XI
    76严庆.解读“整合”与“民族整合”.民族研究. 2006年第4期
    77欧文·拉兹洛.系统哲学引论——一种当代思想的新范式.商务印书馆. 1998
    78亨利·黑兹利特著;吴栋、王力等译.一课之师.清华大学出版社.1999: 4
    79中国大百科全书-社会学卷.中国大百科全书出版社. 1986: 575
    80章家恩.地球人迟到的忏悔:恢复生态学.上海科技出版社. 2002: 65~66
    81于今.统筹区域协调发展.党建读物出版社, 2004: 30~33
    82龙惟定.建筑节能与建筑能效管理.中国建筑工业出版社, 2005: 87~94
    83黄鲁成.基于生态学的技术创新行为研究.北京:科学出版社, 2007
    84张强.论系统演化的共生性.系统辩证学报. 2005. 13(3): 22-2
    85郑时龄.黑川纪章共生思想的哲学基础.室内设计与装修. 2003, (10)
    86孟庆红.区域经济学概论.经济科学出版社, 2003: 12~96
    87 S·V·Szokolay. Solar Energy and Building. Halsted Pr. 2nd Edition. 2000: 76
    88鱼剑琳,王沣浩.建筑节能应用新技术.化学工业出版社, 2006: 108
    89王凌凌等.论夏热冬冷地区地板采暖的可行性.能源研究与利用. 2004, (6): 10
    90齐政新,李岩.太阳能低温地板辐射采暖系统的探讨.煤气与热力. 2003, 23(5): 312~315
    91高金水.太阳能供暖系统分析.天津大学硕士学位论文. 2005: 23~24
    92黄奕等.地板辐射供冷除湿问题探索.暖通空调. 2003, 33 (3): 47~49
    93孔祥雷等.辐射供冷空调结露问题的研究现状及其对策.建筑热能通风空调. 2008, 27(1): 20~23
    94唐鸣放,钱炜.采用生态建筑隔热措施,改善城市热环境.重庆建筑大学学报. 2001, (4)
    95彰国社.国外建筑设计详图图集14.中国建筑工业出版社. 2005: 53
    96周鹏.夏热冬冷地区住宅屋顶气候适应性设计研究.华中科技大学硕士学位论文. 2004: 36
    97李华东主编.高技术生态建筑.天津大学出版社, 2002: 28, 163~173
    98张神树,高辉.德国低/零能耗建筑实例解析.中国建筑工业出版社, 2007: 100~108
    99戴维·皮尔逊.新有机建筑.江苏科技出版社, 2003: 64, 213
    100张瀛洲.南京聚福园:节能与绿色建筑设计开发创新.建设科技. 2006, (7): 10~12
    101 http://blog.topenergy.org/2400/viewspace-188
    102 Richard Hyde. Redefining bioclimatic housing: innovative designs for warm climates. Earthscan. 2006: 126
    103石磊,赵秉文,张粱瑜.反向阳光间被动式太阳能空气采暖系统.能源技术, 2002, 23(6): 249~251
    104王焱.夏热冬冷地区住宅节能优化设计.东南大学博士论文. 2003:24~32
    105袁纯清.金融共生理论与城市商业银行改革.商务印书馆, 2002: 147
    106 http://www.solardirect.com/.../apricus/sizing.htm
    107 http://www.catnaps.org/islamic/approach.html
    108 http://www.worldchanging.com/archives/006724.html
    109 http://www.helios-pv.com/ch/bipv%20modules.php
    110 http://www.shortandassociates.co.uk/
    111易桦.新型PV-Trombe墙系统的理论与实验研究.中国科技大学博士论文. 2007: 15~18
    112 Bergene Trond,Lovvik Ole Martin. Model Caculations on a Flat-plate Solar Heat Collector with Integrated Solar Cells. Solar Energy. 1995, 55(6): 453~462
    113王崇杰等.欧美建筑设计中太阳墙的应用.建筑学报. 2004, (8): 77
    114 http://www.treehugger.com/.../09/solar_glass_at.php
    115 http://www.hkpc.org/.../zoning/envir-onmental/bipv.jsp
    116王如竹.关于建筑物节能及复合能量系统的几点思考.太阳能学报. 2002, (3): 322~335
    117孙海燕.我国首座超低能耗楼在清华落成.建设科技. 2005, (8): 18
    118 http://news.tsinghua.edu.cn/new/news.php?id=13470
    119韩继红等.上海生态建筑示范工程:生态办公示范楼.中国建筑工业出版社, 2006: 106
    120 http://news.xinhuanet.com/.../10/content_2439521.htm
    121 http://www.chinahouse.info/.../19/15_31_41_714.html
    122 http://www.multiwallsystems.com/twinfix_systems.htm
    123 http://www.metaefficient.com/architecture-and-building/skyscraper-gets-covered-in-7000-solar-panels.html
    124 http://www.helios-pv.com/ch/bipv%20modules.php
    125 http://www.topenergy.com
    126 [美]弗兰克·P·英克鲁佩勒,戴维·P·戴威特,葛新石等译.传热的基本原理.安徽教育出版社,1985: 5
    127孟庆林.建筑屋面太阳能被动蒸发冷却研究.太阳能学报. 1996, 17(3): 256~262
    128藤井明.聚落探访.中国建筑工业出版社, 2003: 168~175
    129 http://www.ctrip.com/Community/ItineraryWri/ShowWriting.asp?writing
    130秦慧敏.蒸发冷却技术在北半球大陆的适用性分析.西安制冷. 1999, (1)
    131陈志祥,吴增明.水帘-风机通风冷却系统的设计和使用.中国家禽. Vol.29, 2007(6):39
    132 Solar 2004: Proceedings of the 33rd ASES Annual Conference (Including 29th National Passive Solar Conference). American Solar Energy Society. 2004
    133日本可持续建筑协会.建筑物综合环境性能评价体系——绿色设计工具.中国建筑工业出版社, 2005
    134陈飞.建筑与气候.同济大学博士论文. 2003: 225~230
    135重庆夏季室内热环境对人体生理指标及热舒适的影响研究.重庆大学硕士论文. 2003: 16~22
    136 Satty TL,Erdener E.A new approach to performance measurement the analytic hierarchy process.Design Methods and Theories 1979, 13(2): 62~80
    137 Satty TL. The analytic hierarchy process: planning priority setting and resource allocation.New York: McGraw-Hill;1980
    138 Maggie CY, Tama VM, Rao Tummala.An application of the AHP in vendor selection of a telecommunications system. Omega 2001, 29: 171~82
    139 Ramanathan R.A note on the use of the analytic hierarchy process for environmental impact assessment.Journal of Environmental Management 2001, 63: 27~35
    140美国绿色建筑委员会.绿色建筑评估体系第二版.中国建筑工业出版社, 2002: 7
    141 K·A Dalberth. Energy use during the life cycle of buildings: a method. Building and Environment. 1997, 32(3): 317~320
    142 RJ Cole, PC Kernan.Lief cycle energy use in office buildings. Building and Environment. 1996, 31(3): 307~317
    143喻李葵.建筑环境性能模拟、评价和优化研究.湖南大学博士论文. 2004
    144比尔·劳森,大卫·鲁德.建筑材料、能源与环境朝向生态可持续发展.中国环境科学出版社,2002: 202
    145李俊鸽.夏热冬冷地区人体热舒适适应气候模型研究.西安建筑科技大学硕士学位论文. 2006: 12~20
    146中国太阳能建筑设计竞赛获奖作品选.中国建筑工业出版社, 2005: 22
    147王崇杰等.我国寒冷地区高校学生公寓生态设计与实践——以山东建筑大学生态学生公寓为例.建筑学报. 2006, (11): 29~31
    148刘念雄,秦佑国.建筑热环境.清华大学出版社2005: 54
    149吕爱民.应变建筑.同济大学出版社. 2004: 110
    150仓力佳.生态建筑的仿生研究.华中科技大学大学硕士论文. 2005: 93~121
    151 http://www.rolfdisch.de
    152 http://people.seas.harvard.edu/~jones/lab_arch/H_and_dM/translations/hdm_4/hdm_4.html
    153 http://tech.enorth.com.cn

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