张掖市城市代谢机理及优化调控研究
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摘要
城市是一个以人类活动为中心的社会-经济-自然复合生态系统。高投入、低产出、高污染的粗放型城市发展模式导致了一系列严重的结构性隐患与环境问题,如环境污染、资源短缺、效率低下等,对我国的城市生态系统和居民健康产生了一系列惩罚性影响。从本质上讲,上述问题大部分与城市代谢相关,如代谢通量大、代谢结构不合理、代谢效率低等问题导致城市代谢过程紊乱。城市代谢是城市功能得以维持的基础。只有从代谢角度入手才能真正深入研究城市生态环境、资源消费、经济活动水平等方面的各种城市问题。因此,对城市代谢机理的评估就成为一个重要的研究课题。
     本文以城市生态系统为研究对象,核算城市资源环境及经济发展代谢状况,采用能值分析方法核算系统各种能量流、物质流,在构建的基本指标体系的基础上,构建包括城市代谢流量、代谢结构、代谢影响和代谢效率的城市代谢评价指标体系,并在此基础上构建了城市生态系统健康评价指标(EUEHI)。以张掖城市生态系统为例,核算了张掖市2001-2010年城市代谢能力,评价了张掖市生态系统健康水平的多年演变趋势。通过对张掖市张掖2001-2010年城市代谢能值的时间序列分析,代谢结构以本地自然资源开发利用为主,对外界输入依赖度较低,对可更新资源依赖度有上升趋势,废弃物排放有上升趋势,但在系统承载能力范围内,生态系统健康指数呈上升趋势。
     本文将能值理论分析方法创新性的运用到城市代谢能力的评价中去,为定量分析城市生态系统提供一种新思路,有助于完善城市生态系统研究理论与方法学体系,弥补我国当前在此领域研究较少的现状,为我国城市的健康发展与政府综合管理提供科学依据。
City is a social-economic-natural complex ecosystem, taking human activity as the center. High input, low output, high pollution of the extensive mode of city development has caused a series of serious structural problems and environmental problems, such as environmental pollution, shortage of resources, low efficiency, and that has produced a series of punitive effect to the city of our country ecosystem and health of residents. Essentially, these problems is the result of city metabolism, such as metabolic flux, unreasonable structure of metabolism, low efficiency, these problem has caused the city metabolism metabolic disorder. City metabolism is where the city function based. Only through the perspective of in-depth study of metabolism is the way to improve city ecological environment, resource consumption, put up solution of various aspects of city problems. Therefore, the city metabolic mechanism evaluation has become an important research topic.
     Paper taking ecological system as the research object, accounting of resources environment and economic development of the city's metabolic status, using the method of accounting system of energy flow, material flow, in the construction of the basic index system based on the construction of city, including metabolic flux, metabolic structure, metabolism and metabolic efficiency evaluation index system of city metabolism, and on the basis of constructing the city ecosystem health assessment index (EUEHI). Then taking Zhangye city ecological system as an example, accounting Zhangye city metabolic capacity from2001-2010, evaluated Zhangye city ecosystem healthy level evolution trend. The result shows:metabolic structure to local natural resources development and utilization based on input from outside, the system is less reliant on renewable resources dependence,,the wastes are on the rise, but in the range of load carrying ability, ecosystem health index looks upward trend.
     The emergy theory and analysis method of innovative applied to city metabolic capacity evaluation of quantitative analysis of city ecological system, to provide a new train of thought, conduce to improve the city ecosystem research theory and methodology system, make up for our current study in this field which is less present situation, for our country the healthy development of the City and the integrated management of the government to provide a scientific basis.
引文
[1]黄书礼.都市生态经济与能量[J].台北:詹氏书局.2004:147-151.
    [2]王如松.复合生态与循环经济[M]:气象出版社.2003.
    [3]刘耕源.基于生态热力学的城市代谢过程研究[硕士论文]:北京师范大学.2010.
    [4]陶在朴.生态包袱与生态足迹:可持续发展的重量及面积观念[M]:经济科学出版社.2003.
    [5]Schandl H., Schulz N. Changes in the United Kingdom's natural relations in terms of society's metabolism and land-use from 1850 to the present day[J]. Ecological Economics.2002,41(2):203-221.
    [6]Fischer Kowalski M., Huttler W. Society's metabolism[J]. Journal of industrial ecology. 1998,2(4):107-136.
    [7]Krausmann F., Haberl H., Schulz N. B.et al. Land-use change and socio-economic metabolism in Austria-Part I:driving forces of land-use change:1950-1995[J]. Land use policy.2003,20(1):1-20.
    [8]Cusso X., Garrabou R., Tello E. Social metabolism in an agrarian region of Catalonia (Spain) in 1860-1870:Flows, energy balance and land use[J]. Ecological Economics.2006,58(1):49-65.
    [9]Xu M., Jia X. P., Shi L.et al. Societal metabolism in Northeast China:Case study of Liaoning Province[J]. Resources, Conservation and Recycling.2008,52(8-9):1082-1086.
    [10]Niza S., Ferrao P. A transitional economy's metabolism:The case of Portugal[J]. Resources, conservation and recycling.2006,46(3):265-280.
    [11]Wolman A. The metabolism of cities[J].1969
    [12]Sahely H. R., Dudding S., Kennedy C. A. Estimating the urban metabolism of Canadian cities: Greater Toronto Area case study[J]. Canadian Journal of Civil Engineering.2003,30(2):468-483.
    [13]Leontief W. Environmental repercussions and the economic structure:an input-output approach[J]. The review of economics and statistics.1970,52(3):262-271.
    [14]Ayres R. U., Kneese A. V. Production, consumption, and externalities[J]. The American Economic Review.1969,59(3):282-297.
    [15]Ayres R. U. Industrial metabolism:theory and policy[J].1992
    [16]Daigo l., Matsuno Y., Adachi Y. Substance flow analysis of chromium and nickel in the material flow of stainless steel in Japan[J]. Resources, Conservation and Recycling.2010,54(11):851-863.
    [17]Michaelis P., Jackson T. Material and energy flow through the UK iron and steel sector. Part 1:1954-1994[J]. Resources, Conservation and Recycling.2000,29(1):131-156.
    [18]Haberl H. The Energetic Metabolism of Societies:Part Ⅱ:Empirical Examples[J]. Journal of Industrial Ecology.2001,5(2):71-88.
    [19]Haberl H. Human appropriation of net primary production as an environmental indicator:implications for sustainable development[J]. Ambio.1997:143-146.
    [20]Haberl H. The energetic metabolism of societies part I:accounting concepts[J]. Journal of Industrial Ecology.2001,5(1):11-33.
    [21]Krausmann F., Haberl H. The process of industrialization from the perspective of energetic metabolism::Socioeconomic energy flows in Austria 1830-1995[J]. Ecological Economics. 2002,41(2):177-201.
    [22]Ramos-Martin J., Giampietro M., Mayumi K. On China's exosomatic energy metabolism:An application of multi-scale integrated analysis of societal metabolism (MSIASM)[J]. Ecological Economics.2007,63(1):174-191.
    [23]Huang S. L., Lee C. L., Chen C. W. Socioeconomic metabolism in Taiwan:emergy synthesis versus material flow analysis[J]. Resources, conservation and recycling..2006,48(2):166-196.
    [24]王如松,杨建新.产业生态学和生态产业转型[J].世界科技研究与发展.2000,22(005):24-32.
    [25]李利.城市代谢研究发展进程[J].福建林业科技.2011,4
    [26]Giampietro M. Multi-scale integrated analysis of agroecosystems[M]:CRC.2004
    [27]Giampietro M., Mayumi K. A dynamic model of socioeconomic systems based on hierarchy theory and its application to sustainability[J]. Structural Change and Economic Dynamics. 1997,8(4):453-469.
    [28]Falconi-Benitez F. Integrated assessment of the recent economic history of Ecuador[J]. Population& Environment.2001.22(3):257-280.
    [29]Biesiot W., Noorman K. J. Energy requirements of household consumption:a case study of The Netherlands[J]. Ecological Economics.1999,28(3):367-383.
    [30]陶在朴.生态包袱与生态足迹:可持续发展的重量及面积观念[M]:经济科学出版社.2003.
    [31]Li D., Wang R. Hybrid Emergy-LCA (HEML) based metabolic evaluation of urban residential areas: The case of Beijing, China[J]. Ecological Complexity.2009,6(4):484-493.
    [32]Kibert C. J. Construction ecology and metabolism[M]:RILEM Publications.2000:26.
    [33]Assefa G., Glaumann M., Malmqvist T.et al. Quality versus impact:Comparing the environmental efficiency of building properties using the EcoEffect tool[J]. Building and Environment. 2010,45(5):1095-1103.
    [34]Girardet H. The Gaia atlas of cities:new directions for sustainable urban living[M]:Gaia books.1996
    [35]张鼎华,林业.城市林业[M]:中国环境科学出版社.2001.
    [36]Liu Y., Chen J., Mol A. P. J.et al. Comparative analysis of phosphorus use within national and local economies in China[J]. Resources, conservation and recycling.2007,51(2):454-474.
    [37]Fan Y., Hu S., Chen D.et al. The evolution of phosphorus metabolism model in China[J]. Journal of Cleaner Production.2009,17(9):811-820.
    [38]Forkes J. Nitrogen balance for the urban food metabolism of Toronto, Canada[J]. Resources, conservation and recycling.2007,52(1):74-94.
    [39]Haberl H. The energetic metabolism of societies part I:accounting concepts[J]. Journal of Industrial Ecology.2001,5(1):11-33.
    [40]Octave S., Thomas D. Biorefinery:toward an industrial metabolism[J]. Biochimie. 2009,91 (6):659-664.
    [41]Ramos-Martin J., Canellas-Bolta S., Giampietro M.et al. Catalonia's energy metabolism:Using the MuSIASEM approach at different scales[J]. Energy Policy.2009,37(11):4658-4671.
    [42]Potere D., Schneider A. A critical look at representations of urban areas in global maps[J]. GeoJournal. 2007,69(1):55-80.
    [43]Churkina G. Modeling the carbon cycle of urban systems[J]. Ecological Modelling. 2008,216(2):107-113.
    [44]Browne D., O Regan B., Moles R. Assessment of total urban metabolism and metabolic inefficiency in an Irish city-region[J]. Waste Management.2009,29(10):2765-2771.
    [45]Giampietro M., Mayumi K. The biofuel delusion:the fallacy of large-scale agro-biofuel production[M]:Earthscan/James & James.2009
    [46]Jin W., Xu L., Yang Z. Modeling a policy making framework for urban sustainability:Incorporating system dynamics into the Ecological Footprint[J]. Ecological Economics.2009,68(12):2938-2949.
    [47]Xu M., Jia X. P., Shi L.et al. Societal metabolism in Northeast China:Case study of Liaoning Province[J]. Resources, Conservation and Recycling.2008,52(8-9):1082-1086.
    [48]Liu G. Y., Yang Z. F., Chen B.et al. Emergy-based urban ecosystem health assessment:A case study of Baotou, China[J]. Communications in Nonlinear Science and Numerical Simulation. 2009,14(3):972-981.
    [49]Costanza R., Voinov A. Landscape simulation modeling:a spatially explicit, dynamic approach[M]:Springer Verlag.2004
    [50]Huang S. L., Lee C. L., Chen C. W. Socioeconomic metabolism in Taiwan:emergy synthesis versus material flow analysis[J]. Resources, conservation and recycling.2006,48(2):166-196.
    [51]Huang S. L., Kao W. C., Lee C. L. Energetic mechanisms and development of an urban landscape system[J]. Ecological modelling.2007,201 (3-4):495-506.
    [52]Lee C. L., Huang S. L., Chan S. L. Biophysical and system approaches for simulating land-use change[J]. Landscape and Urban planning.2008,86(2):187-203.
    [53]Lee C. L., Huang S. L., Chan S. L. Synthesis and spatial dynamics of socio-economic metabolism and land use change of Taipei Metropolitan Region[J]. Ecological Modelling.2009,220(21):2940-2959.
    [54]吴玉琴,严茂超.广州城市代谢效率的模拟分析[J].资源科学.2011,33(8):1555-1562.
    [55]张力小,胡秋红.城市物质能量代谢相关研究述评——兼论资源代谢的内涵与研究方法[J].自然资源学报.2011.26(10):1801-1810.
    [56]张兆臣.仇方道.姜萌.矿业城市的物质代谢分析——以徐州市为例[J].环境科学与管理.2011.36(003):141-144.
    [57]李芳,张妍,刘耕源.基于能值分析的城市物质代谢研究[J].环境科学与技术.2009.32(010):108-112.
    [58]Rappaport R. A. The flow of energy in an agricultural society.[J]. Scientific American. 1971,225(3):117.
    [59]Newcombe K., Kalma J. D., Aston A. R. The metabolism of a city:the case of Hong Kong[J]. Ambio. 1978:3-15.
    [60]陈效逑,赵婷婷,郭玉泉等.中国经济系统的物质输入与输出分析[J].北京大学学报(自然科学版).2003,39(4):538-547.
    [61]Ritthoff M., Rohn H., Liedtke C. Calculating MIPS:Resource productivity of products and services[M]:Wuppertal Inst. for Climate, Environment and Energy.2002
    [62]Costanza R., Daly H. E. Natural capital and sustainable development[J]. Conservation biology. 1992,6(1):37-46.
    [63]Odum H. T., Odum E. C. Energy basis for man and nature[J].1976
    [64]Wackernagel M., Rees W. E. Our ecological footprint:reducing human impact on the earth[M]:New Society Pub.1996
    [65]杨小渡,吴庆书.城市生态学[M]:北京:科学出版社.2000
    [66]叶功富,洪志猛.城市森林学[M]:厦门大学出版社.2006.
    [67]Newman P. W. G. Sustainability and cities:extending the metabolism model[J]. Landscape and urban planning.1999,44(4):219-226.
    [68]Warren-Rhodes K., Koenig A. Escalating trends in the urban metabolism of Hong Kong: 1971-1997[J]. AMBIO:A Journal of the Human Environment.2001,30(7):429-438.
    [69]Hendriks C., Obernosterer R., Muller D.et al. Material flow analysis:A tool to support environmental policy decision making. Case-studies on the city of Vienna and the Swiss lowlands[J]. Local Environment.2000,5(3):311-328.
    [70]Gasson B. The ecological footprint of Cape Town:Unsustainable resource use and planning implications[M].2002:18-20.
    [71]Baccini P. A city's metabolism:Towards the sustainable development of urban systems[J]. The Journal of Urban Technology.1997,4(2):27-39.
    [72]隋春花,蓝盛芳.城市生态系统能值分析(EM A)的原理与步骤[J].重庆环境科学.1999
    [73]隋春花,张耀辉.环境一经济系统能值(Emergy)评价:介绍Odum的能值理论[J].重庆环境科学.1999,21(001):18-20.
    [74]Odum H. T.,蒋有绪.系统生态学[J].北京:科学出版杜.1993
    [75]蓝盛芳,钦佩.生态系统的能值分析[J].应用生态学报.2001,12(1):129-131.
    [76]李海涛,廖迎春,严茂超等.新疆生态经济系统的能值分析及其可持续性评估[J].地理学报.2003,58(005):765-772.
    [77]蓝盛芳.生态经济能值分析(生态.环境与生态工程丛书)[M]:北京:化学工业出版社.2002
    [78]杨德伟,陈治谏,倪华勇等.基于能值分析的四川省生态经济系统可持续性评估[J].长江流域资源与环境.2006,15(003):303-309.
    [79]焦文婷,陈兴鹏,张子龙等.宁夏回族自治区环境承载力评价[J].兰州大学学报:自然科学版.2010,46(004):53-57.
    [80]张妍,杨志峰.城市物质代谢的生态效率——以深圳市为例[J].生态学报.2007,27(8):3124-3131.
    [81]刘耕源,杨志峰,陈彬等.基于能值分析的城市生态系统健康评价[J].生态学报.2008,28(4):1720-1728.

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