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  1. NTU Theses and Dissertations Repository
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請用此 Handle URI 來引用此文件: http://tdr.lib.ntu.edu.tw/jspui/handle/123456789/34444
完整後設資料紀錄
DC 欄位值語言
dc.contributor.advisor於幼華(Yue-Hwa Yu)
dc.contributor.authorLi-Teh Luen
dc.contributor.author呂理德zh_TW
dc.date.accessioned2021-06-13T06:08:54Z-
dc.date.available2006-06-05
dc.date.copyright2006-06-05
dc.date.issued2006
dc.date.submitted2006-05-23
dc.identifier.citation英文部分:
1.Abad, E., Adrados, M. A., Caixach, K., Fabrellas, B. and Rivera, J., 2000, Dioxin Mass Balance in A Municipal Waste Incinerator, Chemosphere 40, 1143-1147
2.Altwicker, E. R., 1991, Some Laboratory Experimental-Designs for Obtaining Dynamic Property Data on Dioxins, The Science of the Total Environment, 104, 47
3.Altwicker, E. R., 1992, Fundamental Aspects of Dioxins (PCDD) from Combustion, Report 98-3, New York State Energy Research and Development Authority.
4.Altwicker, E. R., Konduri, R. K., Lin, C. N. and Milligan, M. S., 1993, Formation of Precursors to Chlorinated Dioxin/Furan under Heterogeneous Condition, Combustion Science and Technology, 88, 349-368
5.Altwicker, E. R., 1996, Formation of PCDD/F in Municipal Solid Waste Incinerators - Laboratory and Modeling Studies, Journal of Hazardous Materials, 47, 137
6.Atlantic Consulting and IPU (Institute for Product Development of the Technical University of Denmark), 1998, LCA study of product group personal computers in the EU Ecolabel scheme, 6-33
7.Ayres, Robert U. and Ayres, Lesile W., 1988, An Historical Reconstruction of Major Pollutant Levels in the Hudson-Raritan Basin 1800-1980, Technical Memorandum (NOS OMA 43), National Oceanic and Atmospheric Administration, Rockville MD
8.Ayres, Robert U. and Ayres, Lesile W., 1996, Industrial Ecology: Towards Closing the Materials Cycle, Vermont: Edward Elgar Publishing Company.
9.Baccini, P. and Brunner, P. H., 1999, Metabolism of the Anthroposphere, Berlin: Springer Verlag
10.Bagozzi, R. P, 1980, Causal Models in Marketing. N.Y., Wiley
11.Bagozzi, R. P. and Yi, Y., 1988, On the Evaluation of Structure Equations Models, Academic of Marketing Science. 16 (1), 76-94
12.Bagozzi, R. P., Yi, Y. and Phillips, L. W., 1991, Assessing Construct Validity in Organizational Research. Administrative Science Quarterly, 36 (3), 421-458
13.Barrow, C.J., 1999, Environmental Management
14.Breuer,R., Umweltschutzrecht,in: Schmidt- Aßmann (Hrsg.), Bes-VerwR, 10. Aufl. 1995, Rdnr.13
15.Bidleman, TF., 1988, Atmospheric processes. Wet and dry deposition of organic compounds are controlled by their vapor-particle partitioning. Environ. Sci. Techol., 22, 361-367
16.Bolin, B., 1983, Changing global biogeochemistry, in Brewer, P. (ed.) 50th Anniversary Volume, Woods Hole Oceanographic Institution, The Future of Oceanography, New York, Springer-Verlag, 305-326
17.Bollen, K. A., 1989a, A new incremental fit index for general structural equation models. Sociological Methods and Research, 17, 303-316
18.Bollen, K. A., 1989b, Structural Equations with Latent Variables. Wiley Series in Probability and Mathematical Statistics. New York: Wiley, 514
19.Bollen, K.A., 2002, Latent Variables in Psychology and the Social Sciences. Annual Review of Psychology, 53, 05-634
20.Boyle, Stewart, 2000, Crossed Wires, Tomorrow, 10 (3), 14-15
21.Born, J.G.P., Mulder, P. and Louw, R., 1993, Fly-Ash ediated(Oxy)Chlorination of Phenol and Its Role in PCDD/F Formation, Chemosphere, 26, 2087
22.Born, J.G.P., Mulder, P. and Louw, R., 1993, Fly-Ash Mediated Reactions of Bundesamt Fur Umwelt Wald und Landschaft, 1997, Cadmium–Stoff fluss analyse, Switzland:BUWAL, Switzland
23.Braile, Robert, 1999, E-commerce May Be Helping the Environment, Boston Globe
24.Breckler, S. J., 1990, Applications of covariance structure modeling in psychology: Cause for concern? Psychological Bulletin, 107(2), 260-273
25.Breen, Joseph J. and Dellarco, Michael J., eds., 1992, Pollution Prevention in Industrial Processes: The Role of Process Analytical Chemistry, Washington, D.C.: American Chemical Society
26.Bundesamt Fur Umwelt Wald und Landschaft (1997): Cadmium–Stoff fluss analyse, Switzland:BUWAL, Switzland
27.Cains, P. W., Mc Causland, L. J., Fernandes, A. R. and Dyke, P., 1997, Polychlorinated Dibenzo-p-dioxins and Dibenzofurans Formation in Incineration: Effects of Fly Ash and Carbon Source, Environmental Science & Technology, 31, 776-785
28.Carson, Rachel, 1962, Silent Spring, New York: Ballantine
29.Chen, Hsiung-Wen., 2003, Current Status and Future Prospects of Resource Recycling in Taiwan, Proceedings of the 7th International Symposium on East Asia Resources Recycling Technology, 17-22
30.Colborn, Theo, Dubanowski, Diane and Myers, John Peterson, 1996, Our Stolen Future: Are We Threatening Our Fertility, Intelligence, and Survival? Scientific Detective Story, New York: Dutton (Penguin)
31.Cohen, Nevin, 1999, Keys to the Kingdom, Tomorrow, 6 (4), 25-30
32.Daly, Herman, 1990, Toward Some Operational Principles of Sustainable Development, Ecological Economics, 2, 1-6
33.Davis, Gary A., Win, Catherine A. and Barkenbus, Jack N., 1997, Extended Product Responsibility: A Tool for a Sustainable Economy,' Environment, 39 (7), 10-15, 36-37
34.Dickson, L. C., Lenoir, D. and Hutzinger, O., 1992, Quantitative Comparison of de novo and Precursor Formation of Polychlorinated Dibenzo-pdioxins under Simulated Municipal Solid Waste Incinerator Postcombustion Conditions, Environmental Science & Technology, 26, 1822-1828
35.Dieter, O. R., 1989, Heavy Metals in Domestic Refuse and Their Distribution in Incinerator Residues, Waste Management and Research, 7, 57-62
36.Doyle, J. J., 1977, Effect of low levels of dietary cadmium in animal review, Journal of Environment Quality, 6, 111-116
37.Eckenfelder, W. Wesley, Bowers, Alan and Roth, John, 1994, Chemical Oxidation, Technologies for the Nineties, Lancaster, Pa.: Technomic
38.Ehrenfeld, J. and Gertler, N., 1997,Industrial Ecology in Practice, J. Industrial Ecology, 1 (1), 67-79
39.Ehrlich, P. R., Ehrlich, A. P. and Holdren, J. P., 1977, Ecoscience: population, resources, environment, San Francisco: Freeman
40.Erkman, S., 1997, Industrial Ecology: a Historical View, J. Cleaner Production, 5 (1-2), 1-10
41.Fassett, D. W., 1980, Metals in the Environment ed. Waldron, London: H. A. Academic Press, 61-110
42.Froese, K. L. and Hutzinger, O., 1996, Polychlorinated Benzene, Phenol, Dibenzo-p-dioxin, and Dibenzofuran in Heterogeneous Combustion Reactions of Acetylene, Environmental Science & Technology, 30 (3), 998-1008
43.Geiser, Kennth, 2001, Materials Matter: Toward a Sustainable Materials Policy, The MIT Press Cambridge, Massachusetts, London, England
44.Glenn, Jim, 1999, The State of Garbage in America, BioCycle, 40 (4), 60
45.Goudie, A. S. and Vilies, H. A., 1997, The Earth Transformed, Oxford: Blackwell
46.Graedel, T. E. and Crutzen, P. J., 1993, Atmospheric Change: An Earth System Perspective, New York: W. H. Freeman
47.Graedel, T. E. and Allenby, B. R., 1995, Industrial Ecology, Prentice Hall
48.Gulletta, B.K., Dunnb, J.E., Baec, S.-K. and Raghunathand, K., 1998, Effects of combustion parameters on polychlorinated dibenzodioxin and dibenzofuran homologue profiles from municipal waste and coal co-combustion, Waste Management, 18, 473-483
49.Huang, H. and Buekens, A., 1996, De Novo Synthesis of Polychlorinated Dibenzo-p-dioxins and Dibenzofurans Proposal of a Mechanistic Scheme, The Science of the Total Environment, 193, 121
50.Hartmann, Thom, 1998, The Last Hours of Ancient Sunlight: Waking Up to Personal and Global Transformation, Mythical Books, 13
51.Heerings, H. and Zeldenrust,I., 1995, Elusive Saviours. Transnational Corporations and Sustainable Development. Utrecht: Internationa Books
52.Herman, Robert, Ardekani, Siamak A. and Ausubel, Jesse H., 1989, Dematerialization, in Jesse H.Ausubel and Hedy Sladovich,eds., Technology and Environment, Washington, D.C.:National Academy Press, 53
53.Hinterberger, Friedrich, Luks, Fred and Schmidt-Bleek, Friedrich, 1997, Material Flows vs. Natural Capital: What Makes an Economy Sustainable, Ecological Economics, 23 (1), 1-14
54.Houghton, J. T., Jenkins, G. J. and Ephraums, J. J., 1990, Climate Change the IPCC Scientific Assessment
55.Hoyle, R.H., 1995, The structural equation modeling approach: Basic concepts and fundamental issues. In R. H. Holyle eds., Structural Equation Modeling: Concepts, issues and applications, pp.1-15, Thousand Oaks, CA.Sage
56.IUCN, 1990, IUCN/UNEP data in the World Resources1988-9 tables 6.4 and 6.5
57.Janicke, Martin, Monch, Harald, Ranneberg, Thomas and Simonis, Udo E., 1989, Structure Change and Environmental Impact: Empirical Evidence on Thirty-one Countries in East and West, Environmental Monitoring and Assessment, 12, 99-114
58.Joreskog, K. G.., 1973, A general method for estimating a linear structural equation system. In A. S. Goldberger and O. D. Duncan eds., Structural equation models in the social science, 85-112, New York: Academic
59.Joreskog, K. G.., 1993, Testing structural equation models. In K. A. Bollen and J. S. Long eds., Testing structural equation models, 294-316, Newbury Park, CA.Sage
60.Joreskog, K. G. and Sorbom, D., 1993, LISREL8:Structural Equation Modeling with SIMPLIS Command Language. Chicago: Scientific Software International Inc.
61.Kline, Rex B., 1998, Principles and Practice of Structural Equation Modeling. New York: The Guilford Press.
62.Kwonpongsagoon, Suphaphat, Waite, David, and Moore, Stephen, 2002, Use of Information from Material Flux Analysis for Human Health Risk Assessment at Regional Scales: Cadmium as a case study in Australia. The Third Australia Conference on Life Cycle Assessment, Australia.
63.LaGrega, Michael, Buckingham, Phillip and Evans, Jeffrey, 1994, Hazardous Waste Management, New York: McGraw-Hill, 555-570
64.Larson, Eric D., Ross, Marc H. and Williams, Robert H., Beyond the Era of Materials, Scientific American, 254, 34-41
65.Lee, C.-H., Chang, S.-L., Wang, K.-M. and Wen, L.-C., 2000, Management of Scrap Computer Recycling in Taiwan, Journal of Hazardous Materials A73, 209-220
66.Lee, C.-H., Chang, C.-T. and Tsai, S.-L., 1998, Development and Implementation of Producer Responsibility Recycling System, Resources, Conservation and Recycling, 24, 121-135
67.Lifset, Reid, 1993, Take it Back: Extended Producer Responsibility as a Form of Incentive-Based Environmental Policy, Journal of Resource Management and Technology, 21, 166
68.Lippert, T., Wokaun, A. and Lenoir, D., 1991, Surface-Reactions of Brominated Arenes as a Model for the Formation of Chlorinated Dibenzodioxins and Dibenzofurans in Incineration - Inhibition by Ethanolamine, Environmental Science & Technology, 25, 1485
69.Lund, Robert T., 1984, Remanufacture, Technology Review, 87, 18-23, 28-29
70.Mantell, C. L., 1975, Solid wastes: origin, collection, processing and disposal developments in plant and soil sciences, New York: Wiley-Interscience, USA.
71.Maruyama, G.M., 1998, Basics of Structural Equation Modeling. Thousand Oaks, CA.Sage.
72.Matthews, H. S., Hendrickson, C., McMichael, F.C. and Hart, D.J., 1999, Disposition and end-of-life Options for products: A green design study, 1-11
73.Wackernagel, Mathis and Rees, William, 1996, Our Ecological footprint: Reducing Human Impact on the Earth, Gabriola Island, Canada: New Society Publishers
74.McHarg, I, 1969, Design with nature. Natural History Press, NewYork
75.Meadows, D.H., Meadows, D.L., Randers, J. and Behrens, W.W., 1972, The Limits to Growth: A Report for the Club of Rome’s Project on the Predicament of Mankind. A Potomac Associates Book, Universe Books, New York
76.Milligan, M. S. and Altwicker, E. R., 1996, Chlorophenol Reactions on Fly Ash. 2. Equilibrium Surface Coverage and Global Kinetics, Environmental Science & Technology, 30, 230
77.Mitchell, R.J., 1993, Path analysis: pollination. In Scheiner, S.M. and Gurevitch, J., ed., Design and Analysis of Ecological Experiments, 211-231, Chapman and Hall, New York
78.Moldan, B., S. and Billharz, R. Matravers, 1997, Environmental Management, 12, 133-143
79.Monica Hale, 1996, Ecolabeling and Cleaner Production: Principles, Problems, Education and Training in Relation to the Adoption of Environmentally Sound Production Processes, Journal of Cleaner Production, 4 (2), 85-95
80.Chang, Moo Been and Lin, Jung-Jeng, 2001, Memory effect on the dioxin emissions from municipal waste incinerator in Taiwan. Chemosphere, 45, 1151-1157
81.Chang, Moo Been, Lin, Jung-Jeng and Chang, Shu-Hao , 2002, Characterization of dioxin emissions from two municipal solid waste incinerators in Taiwan. Atmospheric Environment, 36, 279–286
82.OECD (Organization for Economic Cooperation and Development, 2002. Environment Data: Compendium 2002. http://www.oecd.org.
83.OECD (Organization for Economic Cooperation and Development), 1994, A. Hammond, A. Adriaanse, E.
84.Oldenbrg, K. and Geiser, K.,1997, Pollution Prevention and or Industrial Ecology?, J. Cleaner Production, 5 (1-2), 103-108
85.Ossenbruggen ,P. J., 1993, Fundamental principles of systems analysis and decision-making, John Wiley & Sons
86.Ott, W.R., 1978, Environmental Indices Theory and Practise.
87.Pento, T., 1999, Industrial Ecology of the Paper Industry, Wat. Sci. Tech., 40, 21-24
88.Pauli, M. and Raimo, P. H., 1997, How to Benefit Decision Analysis in Environmental Life Cycle Assessment, European Journal of Operation Research, 102, 279- 294
89.Page, A.L., Bingham, F.T. and Chang, A.C., 1981, Cadmium in terrestrial plants. In Effect of heavy metal pollution on plants, London: Vol. 1 ed. Lepp, N.W. Applied Science, 77-109
90.Pento, T.,1999, Industrial Ecology of the Paper Industry, Wat. Sci. Tech., 40, 21-24
91.Rghei, H.O. and Eiceman, G.A., 1985, Reactions of 1,2,3,4-TCDD on Fly Ash in Mixed Gases of H2O, NO2, HCl, and Sox in Air, Chemosphere, 14 (3-4), 259-265
92. Ritter, E. R. and Bozzelli, J. W., 1994, Pathways to Chlorinated Dibenzodioxins and Dibenzofurans from Partial Oxidation of Chlorinated Aromatics by OH Radical - Thermodynamic and Kinetic Insights, Combustion Science And Technology, 101, 153
93.Rodemburg, D. and Bryant, R. Woodward: Environmental Indicators, WRI 1995, and in Environmental Indicators , OECD 1994
94.Ruth, M. and Anno, P. D., 1997, An Industrial Ecology of the US Glass Industry, Resources Policy, 23 (3), 109-124
95.Ruth, Matthias, 1998, Dematerialization in Five US Metal Sectors: Implication for Energy Use and CO2 Emissions, Resource Policy, 24 (1), 1-18
96.Ruud, A. and O. Kees, 1995, Mechanism of Formation and Destruction of Polychlorinated Dibenzo-p-dioxin and Dibenzofurans in HeterogeneousSystem, Environ. Sci. Technol., 29 (6), 1425-1435
97.Ryan, Chris, 1998, Designing for Factor 20 Improvements,'Journal of Industrial Ecology, 2 (2), 3-5
98.Sagar, A. D. and R. A. Frosch, 1997, A Perspective on Industrial Ecology and Its Application to a Metal-Industry Ecosystem, J.Cleaner Production, 5 (1-2), 39-45
99.Saizman, James, 1997, Informing the Green Consumer, Journal of Industrial Ecology, 1 (2), 11-21
100.Schmidt-Bleek, Frederich, and Carnoules, 1994, Declaration of the Factor Ten Club, Wuppertal, Germany: Wuppertal Institute for Climate, Environment, and Energy.
101.Shea, Cynthia Pollock, 2000,Give and Take, Tomorrow, 10 (1), 26
102.Simmons, I., 1993, Environmental History: a concise introduction, Oxford: Blackwell, 2-3
103.Simmons, J.L., 1981, The Ultimate Resource, Princeton University Press
104.Senn A. and Milham P., 2000, Managing cadmium in vegetables, 1st ed., NSW Agriculture
105.Simapro, 2001, User Guide, Simapro
106.Socolow, R., C. Andrews, F. Berkhout and V. Thomas,1994, Industrial Ecology and Global Change, Cambridge, UK: Cambridge University Press
107.Stahel, Walter R. and Reday-Mulvey, Genevieve, 1981, Jobs for Tomorrow: the Potential for Substituting Manpower for Energy, New York, Vantage press
108.Stieglitz, L., and Vogg, H., 1987, On Formation Conditions of PCDD/PCDF in Fly Ash from Municipal Waste Incinerators, Chemosphere, 16, 1917-1922
109.Stieglitz, L.,G. Zwick, J. Beck, W. Roth and H. Vogg, 1989, On The DeNovo Synthesis of PCDD/PCDF on Fly Ash of Municipal Waste Incinerators, Chemosphere, 16, 1219-1226
110.Stieglitz, L., Eichberger, M., Bautz, H., Roth, W., Romer, J. and Schild, D., 1994, Investigation of Chloride Transfer and Oxidation as Processes in the De-Novo-Synthesis of PCDD/PCDF on Fly Ash, Organohalogen Compounds, 20, 391
111.Stigliani, W. M. and Anderberg, S., 1994, Industrial metabolism at the regional level: The Rhine Basin. In:Industrial Metabolism: Restructuring for Sustainable Development edited by R. U. Ayres et al., Tokyo-New York-Paris: United Nations University Press.
112.Sundkvist, A., Jansson, A., Enefalk, A. and Larsson, P., 1999, Energy flow analysis as a tool for developing a sustainable society— a case study of a Swedish island, Resources, Conservation and Recycling 25, 289-299
113.Symeonides, C. and S. G. Merace, 1977, The assessment of plant available cadmium in soils, Journal of Environment Quality, 6, 111-116
114.Tamaddon, F. and Hogland, W., 1993, Review of Cadmium in Plastic Waste In Sweden, Waste Management and Research, 11, 287-295
115.Thrope, Beverley, 1999, Citizen Guide to Clean Production, Lowell Center for Sustainable Development, University of Massachusetts Lowell.
116.Tukker, Arnold, 2000, Life cycle assessment as a tool in environmental impact assessment, Environmental assessment review, 435-456
117.USEPA (Environmental Protection Agency in USA), 1987, Characterization of MSW Ashes and Leachates from MSW Landfills Monofills and Co-disposal Sites, Office of Solid Waste and Emergency Response. Washington, DC, 1, 2-3, USA EPA/530-SW87-028A.
118.USGS (United States Geological Survey), 2001, Obsolete Computers, Gold Mine, or High-Tech Trash? Resource Recovery from Recycling, Science for a changing world, U.S. Department of the Interior, See http://pubs.usgs.gov/fs/fs060-01/
119.UN (United Nations Centre for Human Settlements), 1996, An urbanizing world report on human settlements, Oxford: Oxford University Press, Table 1.3
120.U.S. Geological Survey, 1999, Minerals Yearbook: Metals and Minerals, 1997, Washington, D.C.: U.S. Government Printing Office, p. JJJ5
121.van den Berg, M, Birnbaum, L., Bosveld, ATC., Brunstrom, B., Cook, P., Feeley, M., Giesy, JP., Hanberg, A., Hasegawa, R., Kennedy, SW., Kubiak, T., Larsen, JC., Van, LFXR., Liem, AKD., Nolt, C., Peterson, RE., Poellinger, L., Safe, S., Schrenk, D., Tillitt, D., Tysklind, M., Younes, M., Waern, F., and Zacharewski, T., 1998, Toxic equivalency factors (TEFs) for PCBs, PCDFs for humans and wildlife, Environ. Health Perspect. 106, 775-792
122.Vaitilingam, R. 1993, Industrial Initiatives for Environmental Conservation, London: Pitman Publishing.
123.Vehlow, J., 1996. Municipal solid waste management in Germany. Waste Management, 16 (5-6), 367-374
124.Vitousek, Peter, Ehrlich, Paul, and Matson, Pamela, 1986, Human Appropriation of the Products of Photosynthesis, Bioscience, 34 (6), 368-373
125.van der Voet, Ester, 1997, Substances from Cradle to Grave : Development of a methodology for the analysis of substance flows through the economy and the environment in a region, Optima Druk, Molenaarsgraaf, Leiden.
126.van der Voet, Ester, van Egmond, Lipkjen, Kleijn, Rene, and Huppes, Gjalt, 1994, Cadmium in the European Community: A Policy-Oriented Analysis. Waste Management & Research, 12, 507-526
127.Vogg, H, 1986, The Specific Role of Cadmium and Mercury in Municipal Solid Waste Incineration, Waste Management and Research, 4, 65-74
128.Vogg, H., and Stieglitz, L., 1986 Thermal-Behavior of PCDD/PCDF in Fly-Ash from Municipal Incinerators, Chemosphere, 15 (9-12), 1373-1378
129.von Wizsacker, Ernst Ulrich, Lovins, Amory B., and Lovins, L. Hunter, 1997, Four Factor: Doubling Wealth, Halving Resource Use, London
130.Waalkes, Michael P., 2003, Cadmium carcinogenesis. Mutation Research, 533, 107-120
131.WCED ( World Commission on Environment and Development), 1987. Our Common Future. Oxford University Press, Oxford.
132.Wernick, I.K., R. Herman, S. Govind and J. H. Ausubel, 1996, Materialization and Dematerialization: Measures and Trends, J. American Academy of Arts and Sciences, 125 (3), 171-198
133.Wernick, I.K. and N.J. Themelis, 1998, Recycling Metals for the Environment, Annu. Rev. Energy Environ., 23, 465-497
134.Wernick, I.K.,”Industrial Ecology and the Built Environment, 1999, The Rinker Eminent Scholar Workshop on Construction Ecology and Metabolism
135.Wernick, I.K. and J. H. Ausubel, 1997, Industrial Ecology: Some Directions for Research, Program for the Human Environment, The Rockefeller University with the Vishnu Group.
136.Wackernagel, Mathis and Rees, William, 1996, Our Ecological Footprint: Reducing Human Impact on the Earth. New Society Publishers.
137.Wilson, E.J., 2002. Life cycle inventory for municipal solid waste management, Waste Management and Research, 20, 16-22
138.WMC Resource Ltd., 2002, Available: http://www.wmc.com.au/
139.Woodcock, J.T. and Hamilton, J. K. (Eds), 1993, Australasian Institute of Mining and Metallurgy. Monograph Series, 19, The Sir Maurice Mawby Memorial Volume, 2nd ed., Australia.
140. Yanitsky O., 1984, Towards creating a socio-ecological conception of a city // Cities and ecology: The international expert meeting, Suzdal, 24-30
中(日)文部分:
1.日本環境省,平成十三年,循環型社會白書。
2.日本環境廳,2000,促進循環型社會基本法,日本:環境廳。
3.工業技術研究院化學工業研院所,1993,廢一般容器減量回收及處理整合之研究研討會。
4.王如松,1991,城市生態系統中的網路體系:生態學研究進展, 頁256-298,上海,同濟大學出版社。
5.王鯤生,1996,都市垃圾焚化灰渣重金屬物種分析與溶出特性之研究,第十一屆廢棄物處理技術研討會論文集,頁68-76。
6.中國技術服務社工業污染防治中心,1998,全球綠色貿易發展趨勢及對國內電腦產業衝擊之研究。
7.中華經濟研究院,1998,廢一般容器回收清除處理費率暨成本調查分析。
8.台灣省水污染防治所,1980,毒性污染物使用量及殘餘量調查報告。
9.台灣環境衛生,台灣省工業造成環境鎘污染之調查及處理,第16巻第2期。
10.行政院主計處,2001,中華民國社會指標統計, 頁110~111。
11.行政院經建會,2002,都市及區域發展統計彙編。
12.行政院組織再造推動委員會,2003,攜手民間、邁向全球—組織再造-行政法人篇。
13.台灣德國萊茵技術監護顧問股份有限公司,1999,廢塑膠容器回收清除處理稽核認證作業成果報告,行政院環保署。
14.行政院環保署,1990,台灣地區土壤自然元素含量調查(台灣地區農田土壤重金屬自然含量調查),EPA-79-004-13-108。
15.行政院環境保護署,1993,毒性化學物質流佈先期規劃—鎘及其化合物,EPA-82-J204-09-12,3-1。
16.行政院環保署,2000,一般廢棄物焚化爐實地多介質風險評估專案工作計畫。
17.行政院環保署,2001,廢容器就源課費之機制建構及可行性評估專案工作計畫,頁29,EPA-91-HA31-03-91A089。
18.行政院環保署,2001b,污染農地灌溉渠道底泥及水質重金屬污染調查計畫”,EPA-90-G103-02-228。
19.行政院環保署,2002a,環境白皮書
20.行政院環保署, 2002b,綠色產品設計與回收通路配合措施之研擬研究計畫。
21.行政院環保署,2003a,輔導全國執行機關加強辦理資源回收專案工作計畫
22.行政院環保署,2003b,垃圾處理政策評估與檢討專案工作計畫,EPA-91-H101-02-207
23.行政院環保署,2003c,中華民國台灣地區環境保護統計。
24.行政院環保署,2003d,焚化爐飛灰及底灰中重金屬物質成分調查。
25.行政院環保署,2004,資源回收體系理論架構之探討及回收通路之改善計畫,EPA-92-HA15-03-A184。
26.行政院環保署,2005,國家環境保護計畫。
27.江國瑛等,2000,廢主機板、硬碟、CRT�LCD監視器、機殼、電源供應器、筆記型電腦及印表機等七項資訊物品規格及報廢量分析暨再利用規畫。
28.李清華等,1998,廢資訊物品國內處理最適化處理技術及處理後衍生料市場之分析。
29.李俊璋等,2000,毒性化學物質環境流布暴露調查分析與資料庫之建立,行政院環保署。
30.李松宏,阮國棟,1996,焚化爐排氣中戴奧辛及咈喃類化合物之控制,工業污染防治,第15卷第2期,頁68-87。
31.沈志修,1998,資源回收工作推動策略,環境教育月季刊,頁36,32-36。
32.何勝惟,2002,應用多變量統計於土壤重金屬污染與土地利用之分析, 國立台灣大學生物環境系統工程學研究所,碩士論文。
33.何愛文,1994,特別公課(Sonerabgaben)之研究—現代給付國家新興之財政工具」,台大法碩,頁77。
34.李震山,1997,行政法導論,頁88,三民書局。
35.於幼華等,1998, 環境與人。
36.於幼華,馬鴻文,2002,國內非鐵類金屬之物質流分析─以鎘為例。
37.吳庚,2002,行政法理論與實用。
38.吳濟華、屠世亮譯,Leonard Orlolano,1992,環境規劃與決策 (Environmental Planning and Decision Making,1988), 台北:金名圖書公司。
39.林清山,1984,線性結構關係(LISREL)電腦程式的理論與應用,中國測驗學會測驗年刊,第31輯,頁149-164。
40.林獻山、張益誠等,2003,九十一年度宜蘭縣建立循環型環境共生城市之研究工作實施計畫,宜蘭縣環保局。
41.食品工業研究所,2000,食品飲料用塑膠容器產品專題,IT IS經濟部產業技術資訊服務推廣計畫。
42.洪德生,2003,廢容器就源課費之機制及可行性評估專案工作計畫,行政院環保署。
43.柯澤東,1993,環境法論。
44.胡宗典,2002,執行資源回收任務組織之研究─以資源回收管理基金為例,台北大學法學系碩士論文。
45.桃園縣環境保護局,1998,桃園縣環境保護白皮書,頁8-17。
46.孫世勤,1993,都市垃圾焚化廠廢氣中PCDD/PCDF之控制方式,第十屆空氣污染控制技術研討會,頁509-516
47.國立中興大學法律系,1998,廢棄物減量回收業務─棄物清理法第十條之一廢棄物回收清除處理費與資源回收管理基金法律性質之探討,行政院環境保護署。
48.國立台北科技大學,1999,資源廢棄物回收再利用管理,行政院環境保護署。
49.張瓊婷,1999,台灣資源回收變遷之分析,國立台灣大學三民主義研究所碩士論文。
50.張元琳,1997,互利共生─社區互動良好的小學。
51.清華大學永續發展研究室、朝陽科技大學環境管理學系,2000,廢容器及乾電池回收清除處理費率及補貼費相關公式之檢討與建議,台北:行政院環境保護署。
52.郭肇立,1998,聚落與社會,田園城市出版。
53.陶在樸,1999,系統動態學。
54.陳湛勻,1999,現代決策應用與方法分析。
55.陳寬仁,1978,工程經濟,三民書局。
56.陳耀茂,2004,共變異數構造分析的AMOS使用手冊,臺北,鼎茂圖書。
57.陳鶴文、 林晉毅、紀子文,2004,遊憩承載力估計 - 結構方程式之應用,第十七屆環境規劃與管理研討會論文集,中華民國環境工程學會,臺灣臺南,EM-A-01-11。
58.陳鶴文、紀子文、林晉毅、林亮君,2004,遊憩衝擊與遊憩體驗關係驗證之研究,第五屆環境管理研討會,南華大學。
59.陳慈陽,1994,「論環境政策與環境法中之污染者付費原則」,中興法學第三十八期,頁137-144。
60.陳愛娥,1998,行政組織,收錄於李建良、李惠宗、林三欽、林合民、陳春生、陳愛娥、黃啟禎和著:行政法入門,頁234。
61.陳永仁,2001,環境荷爾蒙管制,頁3-7。
62.張紹勳,2000,研究方法,臺中,滄海出版社。
63.張四立等,1998,廢資訊物品回收清除處理費費率之訂定。
64.張清溪等著,1995,經濟學理論與實際,翰蘆圖書出版有限公司,上冊,頁4。
65.張益誠,2001,應用因子分析方法為台灣地區建構永續發展趨勢評估指標系統,台灣大學博士論文。
66.國立中興大學法律系,1998,德國資源回收再利用管理法制研討報告,行政院環保署。
67.湯德宗、陳春生,1997,廢棄物資源回收制度改進之研究,行政院研究發展考核委員會。
68.黃書禮、賴奕錚,2003,以生態城市觀點檢視台灣城市發展之環境課題,國立台北大學都市計畫研究所碩士論文。
69.黃光宇,1989,田園城市.綠心城市.生態城市。
70.黃芳銘,2004,結構方程式模式理論與應用,臺北,五南圖書。
71.黃錦堂,1998,行政組織法之基本問題,收錄於翁岳生編,行政法(上),翰蘆出版公司。
72.黃世鑫,1990,民主政治與國家預算,財團法人張榮發基金會,國家政策研究資料中心發行,頁25。
73.黃彩斐,1998,焚化過程中溫度與氣流組成對戴奧辛生成之影響初探,國立中央大學環境工程研究所碩士論文。
74.黃進益,1994,設定垃圾焚化廠的廢氣排放溫度,工業污染防治第51期。
75.楊沛儒,2001,地景生態城市規劃--基隆河流域的都市發展、地景變遷及水文效應,台大建築與城鄉研究所博土論文。
76.葉美玲、高美玲,1999,結構方程模型與線性結構關係之簡介,護理研究,第7卷第5期,頁490-497。
77.董瑞安等,1999,「廢筆記型電腦回收處理技術之評估研究--LCD回收處理技術可行性評估」。
78.董保城,1994,行政法講義,台北:自版,頁193。
79.新竹市環保局,1999,工業區土壤及地下水質污染全面性調查。
80.經濟部能源委員會核四簡報,2001。
81.諸葛陽,1989,生態平衡與自然保護,淑馨出版社。
82.賴士葆,1987,工程經濟 : 資金分配理論,華泰出版社。
83.蔡震榮,1998,公法人概念的探討,收於當代公法理論,翁岳生教授祝壽論文集,頁266-267。
84.蔡志方,1997,行政法三十六講(普及版),國立成功大學法律學研究所法學叢書(一),作者自刊,頁116。
85.蕭登元,2000,工業生態學中物質流系統之研究介紹。
86.蕭登元,2001,台灣地區建築砂石物質流系統建構之研究,第十四屆環境規劃與管理研討會。
87.鍾昀泰,1997,一般廢棄物焚化成分中戴奧辛含量及相關物化因子初步研究,國立中央大學環境工程研究所碩士論文。
dc.identifier.urihttp://tdr.lib.ntu.edu.tw/jspui/handle/123456789/34444-
dc.description.abstract人口增加以及物質化水準的不斷提升,造成全球環境惡化,也是環境不永續主要原因之一。人口與環境關係可以用Master equation表達,即環境影響=人口×每人GDP ×每單位GDP對環境的影響,亦即環境影響與人口增加有正相關;在地球存在46億餘年中,人類存在不超過370萬年,而人類人口成長過程,可以發現,農業社會人類進入農耕的時代迄今也超過一萬年,在農耕時代,地球環境雖然已經開始惡化,但地球環境快速惡化則是在工業革命以後。
未來50年內,全球的經濟成長預估可能增加5倍,人口增加50%,依此推論,全球資源消費將增加近3倍,全球物質耗用速度快到令人無法想像,如何讓能資源循環再利用,減緩耗盡速度,建立自給自足式的循環型社會,是永續發展最重要課題之一,否則人類將耗盡地球所有可以利用資源,並且不斷產生毒物累積到地球環境中,這些不永續行為,將讓整個地球走向毀滅之路,易言之,我們必須揚棄過去拋棄型社會 (Throw-away Society) 走入循環型社會(Recycling-oriented Society),這也是邁向永續發展過程中一條必須走的道路。
日本循環型社會涵括:資源生產效率、物質循環利用率及垃圾最終處分量量等三大課題,面向相當廣泛;本論文以去物質化與去毒化探討建立循環型社會課題。在去物質化方面,首先以宜蘭頭城鎮為例,採用CO2產生效率,建立農業、漁業等產業評估去物質化的環境效率。宜蘭頭城鎮是一典型的農業鄉鎮,農業(漁業)人口超過總人口一半,區域並無大型污染性工業,工廠多屬加工型產業,它又是台灣地區少數幾個資源回收工作做得較好的鄉鎮。本研究結果發現:頭城鎮2002年二氧化碳排放量以電力最多(76.7%)、移動車輛(15.9%),工業(6.9%),至於農業、漁業及畜牧所產生二氧化碳則只佔0.5%。農業對環境衝擊顯然是比較小的。
去物質化另一個重點是建立一個封閉的物質流迴路(Closing the Loop on Materials Flows),而資源回收再利用問題就是最重要工作,本研究針對台灣近20年垃圾成長以及推動垃圾資源回收進行分析,並選擇具有代表性之產業筆記型電腦回收進行生命週評估 (LCA)及益本分析。台灣垃圾問題與世界各國相非常類似,自1997年以後,台灣政府推動延長生產者責任制度,結合清潔隊積極介入垃圾減量後,台灣垃圾量開始減少,而減量幅度高達30%,平均每人每天垃圾量已經降至0.82公斤,與美國、OECD、英國、日本、荷蘭、香港、新加坡等國家相比較,台灣垃圾減量成效相當顯著。
在筆記型電腦回收方面,經過生命週期評估發現,筆記型電腦回收愈多環境衝擊愈大,因為回收所投入的人力物力所消耗的資源、對生態環境的影響以及間接對人體健康的影響,大於回收所減少的環境衝擊,這種結果與一般大眾預期回收率越高越好的認知有衝突,究其原因主要在於重量百分比低而不可回收的控制單元 (主機板、CPU等)對環境的衝擊最大,而可回收部分所減少的環境衝擊,不足抵扣回收活動所增加的環境衝擊。因此只強調回收率並不重要,提升回收相關技術(控制單元能有效的回收其組成成分)以及製程的改善(一個減少耗能、減低污染的電腦製程),才能真正降低環境衝擊,也才能使回收的動作真正發揮物質循環的效用。此外,在全球化浪潮中,台灣也無法置身事外,在過去,台灣為全球代工製造中心之一,以筆記型電腦為例,全球超過一半以上的出貨量在台灣組裝,從上述LCA評估可以發現,筆記型電腦對環衝擊最嚴重部份是控制單元,這一部分都是在國外生產,究竟其在生產時使用何種有害環境的物質,台灣廠商並無法完全掌握,另外,這些銷往國外的筆記型電腦回收之後,其物料也很難回到台灣,因此如何推動為環境而設計 ( Design for Environmental),將是最比回收廢電腦工作更為迫切,而筆記型電腦回收研究也說明了去毒化的重要性。
在都市去毒方面,則應用結構方程式,建立垃圾資源回收、廚餘回收等行為與都市廢棄物焚化廠煙道中焚化戴奧辛平均排放濃度間之因果關係,建立循環型社會去毒化評估模式,研究結果發現,廚餘回收工作對於去毒化最有貢獻,而PVC塑膠回收工作由於目前強制回收項目仍未徹底,造成塑膠回收與去戴奧辛關係並未明顯。針對鎘進行物質流分析,目前台灣廢棄物處理若仍採用焚化為主政策,並不符合永續發展中強調去物質化與去毒兩大原則,而落實鎳鎘電池及塑膠回收工作,同時推動限用塑膠及鎳鎘電池政策,從垃圾源頭減少鎘使用,應是推動焚化政策時的首要工作。
在社會制度面,從台灣實施延長生產者責任制度與回收制度發現,在去物質化方面已經有很好的績效,但在去毒化方面則仍有很大的改善空間,在邁向循環型社會,未來必須投入更多的清潔生產、環境化設計以及去毒化的研發課題,本研究建議,政府應仿效在三十年前成立工研院模式,由政府將收自生產者的回收處理費用成立類似工研院之公財團法人基金,除了一部分繼續目前的資源回收工作外,大部分則投入研發工作,如此才能解決建立循環型社會所需要的技術,而其研發成果,也才能回饋業者,改善製程,雙方互蒙其利,另一方面,這樣的公財團法人,也能受到立法院監督,但卻仍能有效發揮其財團法人特性,每年固定經費投入研發工作,創造台灣綠色矽島。
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dc.description.abstractThe increase of population and the rapid consumption of material have caused the global environment to worsen and become unsustainable. The relationship between population and environment can be represented by the master equation: Environment Impact = Population × GDP per capita × Effect on environment per GDP. Effect on environment is directly proportional to the population growth. In the 4.7 billion years of earth history, human has only been existing for less than 3.7 million years. It is also clear that although the environment has worsened as population grew and as human stepped into the agricultural era, the process has only started to worsen rapidly after the industrial revolution.
In the next 50 years, global economy is estimated to grow by five times while the population is expected to grow by 50% of what it is today. It is expected that the consumption of global resources will almost triple. It is unimaginable how fast the world is using up its material. Recycling our resources, and decreasing the consumption rate of such resources, are the very important elements to establish a self-supply and self-sufficient recycling-oriented society. Or non-sustainable human behaviour will lead the earth to its destruction by constantly putting toxic in it. In another words, we must say goodbye to the throw-away society and take the path to the recycling-oriented society in order to achieve a sustainable development.
Three major issues of building a recycling-oriented society are resources production efficiency, product recycling rate, and garbage disposal rate. These issues cover quite a general area. This paper will discuss a recycling-oriented society in the areas of dematerialization and detoxification. With dematerialization, this paper will use an example which looks at the CO2 production rate in the town of Toucheng in the ILan prefecture to examine the effect of agricultural and fishing industries on the environment. Toucheng is a typical agricultural town, with more than 50% of the population work being in the agricultural or fishing industry. The region does not have heavy industries generating air pollution as most of the factories are in the processing industry. Toucheng is one of the few towns in Taiwan that has a good resources recycling in place. This study shows that in 2002, the CO2 output in Toucheng was mainly from electric power (76.7%), motor vehicles (15.9%), and household gas (6.9%). CO2 output from agricultural, fishing and livestock industries was only 0.5%. Clearly, impact on the environment from agricultural industries is comparatively lower. The other main point with dematerialisation is closing the loop on material flows, and the most important job of which is resources recycling. This study describes and evaluates the municipal solid waste management system in Taiwan, and uses life cycle analysis (LCA) and cost benefit analysis on notebook manufacturing. The problem with the municipal solid waste (MSW) in Taiwan is very similar to the rest of the world. Since 1997, the Taiwanese government has increased the responsibilities from manufacturers as well as establishing cleaning services to promote waste minimization. As a result, amount of waste reduced by 30% while MSW output per person dropped to 0.82 kilograms. When compared with USA, OECD, Britain, Japan, Holland, Hong Kong and Singapore, Taiwan’s achievement on waste minimization was outstanding.
With regards to notebook recycling, results from life cycle analysis have shown that recycling brought upon more harm to the environment. Contrary to public beliefs, damage to the environment and human health associated with the resources required for notebook recycling outweighs the benefit of recycling. This is due to the fact that relatively light-weighted control units in motherboards and CPUs are non-recyclable but yet have the most impact on the environment. Hence, effective recycling is not only about how much is being recycled but about improving recycling technology to recycle components of control units, as well as improving processes to reduce energy consumption to minimise impact on the environment, and hence achieve true material recycling. Furthermore, due to globalization and the fact that in the past Taiwan was one of the major manufacturing outsourcing center in the world, more than 50% of the notebooks were assembled in Taiwan. As previously pointed out by the life cycle analysis, control units have the most impact on the environment out of all notebook parts. However, as control units were produced overseas, Taiwanese manufacturers had no insight knowledge on what harmful materials were used to produce the control units. In addition, as notebooks were exported to overseas and recycled overseas, hardly any materials came back to Taiwan. Therefore, achieving environmental friendly design is far more important than the subsequent recycling of the notebooks. This study on notebooks recycling also explains the importance of detoxification.
This study applies structural equation to establish the relationship between MSW/Food Waste recycling and average concentration of Dioxin output from refuse incineration plants to build a detoxification evaluation model of a recycling oriented society. This study shows that detoxification recycling contributes the most in detoxification while the relationship between PVC plastic recycling and decrease in Dioxin output from incineration is not evident due to lack of reinforcing recycling PVC plastic. Material flow analysis on the heavy metal Cadmium shows that refuse incineration policy does not satisfy the two principles of sustainable growth, which are dematerialization and detoxification. The most important policy with MSW incineration should be to reduce the use of Cadmium by restricting the use as well as promoting the recycling of plastics and Nickel-Cadmium batteries.
Regulations imposed by Taiwanese government on recycling and the increase of responsibilities by the manufacturers have achieved great results for dematerialization but still leaving room for improvement in areas of detoxification. To step into a recycling oriented society, more research is needed for environment friendly designs and detoxification are also required in the future. The government should adapt the model that was used to establish the Industrial Technology Research Institute (ITRI) 30 years ago and could establish a public trust fund from the recycling fees paid by the manufacturers. It could allocate part of the fund to continue resource recycling and use the majority of the fund in research and development to establish the technology required for setting up a recycling oriented society. This is beneficial to both parties for the manufacturers by helping them to improve their manufacturing processes and on the other hand, the public trust fund can be supervised by the Legislative Yuan of the government but still function as a trust. There should be regular contributions into the trust fund and funds should be allocated to research and development yearly with the aim to build Taiwan into a green silicon island.
en
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Previous issue date: 2006
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dc.description.tableofcontents目錄
頁 次
第一章 前言 1
1.1研究背景 1
1.2研究動機與目的 8
1.3研究架構與流程 12
第二章 文獻回顧 16
2.1去物質化 (Dematerialization) 16
2.2去毒化 (Detoxification) 41
2.3永續發展與循環型社會 76
2.3.1永續發展內涵 76
2.3.2循環型社會內涵 85
2.4各國經驗與制度 95
2.4.1瑞典經驗與制度 95
2.4.2美國經驗與制度 99
2.4.3法國經驗與制度 103
2.4.4德國經驗與制度 107
2.4.5台灣經驗與制度 115
2.5工業生態 136
第三章 研究方法 147
3.1去物質化評估方法 147
3.1.1產業關連表環境分析之應用 147
3.1.2資源回收評估方法 152
3.1.2.1質量平衡 152
3.1.2.2成本效益分析 155
3.1.2.3系統分析 158
3.1.2.4生命週期評估 163
3.2去毒化評估方法 173
3.2.1物質流分析 173
3.2.2結構方程模型 175
第四章 循環型社會去物化質化之探討 193
4.1城鄉去物質化:以頭城鎮為例 193
4.1.1頭城鎮社經環境 193
4.1.2頭城鎮產業環境境效率 206
4.1.3頭城鎮循環型環境共生城市代表指標 217
4.2都市去物質化:廢棄物回收之探討 227
4.2.1台灣廢棄物回收減量探討 227
4.2.2資源回收個案研究探討:以筆記型電腦回收為例 241
第五章 循環型社會與去毒化之探討 260
5.1都市社會去毒化之探討 260
5.1.1廢棄物處理策略去毒化評估:以鎘為例 260
5.1.2垃圾管理結構方程式探討:以戴奧辛為例 273
5.2工業社會去毒之探討 299
5.2.1硬酸鎘工廠之廢水物質流分析 305
5.2.2金屬表面處理與電鍍之鎘物質流關係 307
5.2.3工業區去毒化:以中壢工業區為例 310
第六章 循環型社會制度之探討 320
6.1延長生產者責任制度 321
6.2污染費之制度 333
6.2.1課徵廢棄物回收處理費之法律探討 333
6.2.2押金制度 341
6.2.3垃圾費收費制度 345
6.3推動循環型社會組織之探討 349
第七章 結論與建議 369
7.1循環型社會去物質化結論與建議 370
7.2循環型社會去毒化結論與建議 371
7.3循環型社會組織結論與建議 374
參考文獻 376
dc.language.isozh-TW
dc.subject生命週期評估zh_TW
dc.subject循環型社會zh_TW
dc.subject去物質化zh_TW
dc.subject去毒化zh_TW
dc.subject物質流zh_TW
dc.title建立循環型社會之研究zh_TW
dc.titleA Study on Establishing a Recycling-oriented Societyen
dc.typeThesis
dc.date.schoolyear94-2
dc.description.degree博士
dc.contributor.oralexamcommittee張慶源(Ching-Yuan Chang),馬鴻文(Hwong-Wen Ma),張祖恩(Juu-En Chang),歐陽嶠暉(Chaio-Fuei Ouyang),蔡勳雄
dc.subject.keyword循環型社會,去物質化,去毒化,物質流,生命週期評估,zh_TW
dc.subject.keywordrecycling-oriented society,dematerialization,detoxification,material flow,life cycle assessment,en
dc.relation.page391
dc.rights.note有償授權
dc.date.accepted2006-05-23
dc.contributor.author-college工學院zh_TW
dc.contributor.author-dept環境工程學研究所zh_TW
顯示於系所單位:環境工程學研究所

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