Edited by Robert U. Ayres and Udo E. Simonis
©The United Nations University, 1994
©The United Nations University, 1994
The views expressed in this publication are those of the authors and do not necessarily reflect the views of the United Nations University.
United Nations University PressThe United Nations University53-70 Jingumae 5-chome, Shibuya-kuTokyo 150, JapanTel.: (03) 3499-2811. Fax: (03) 3406-7345.Telex: J25442. Cable: UNATUNIV TOKYO.
Typeset by Asco Trade Typesetting Limited, Hong KongPrinted by Permanent Typesetting and Printing Co., Ltd.,Hong KongCover design by Apex Production, Hong Kong
UNUP-841ISBN 92-808-0841-9United Nations Sales No. E.93.III.A.303500 P
United Nations University PressThe United Nations University53-70 Jingumae 5-chome, Shibuya-kuTokyo 150, JapanTel.: (03) 3499-2811. Fax: (03) 3406-7345.Telex: J25442. Cable: UNATUNIV TOKYO.
Typeset by Asco Trade Typesetting Limited, Hong KongPrinted by Permanent Typesetting and Printing Co., Ltd.,Hong KongCover design by Apex Production, Hong Kong
UNUP-841ISBN 92-808-0841-9United Nations Sales No. E.93.III.A.303500 P
Contents
Note to the reader from the UNUAcknowledgementsIntroduction
Part 1: General implications
1. Industrial metabolism: Theory and policy
What is industrial metabolism?The materials cycleMeasures of industrial metabolismPolicy implications of the industrial metabolism perspectiveReferences
2. Ecosystem and the biosphere: Metaphors for human-induced material flows
IntroductionThe ecosystem analogueThe environmental spheres analogue: Atmosphere, hydrosphere, lithosphere, and biosphereSummary and conclusionsReferences
3. Industrial restructuring in industrial countries
IntroductionIdentifying indicators of environmentally relevant structural changeStructural change as environmental reliefEnvironmentally relevant structural change: Empirical analysisTypology of environmentally relevant structural changeSpecific conclusionsGeneral conclusions
4. Industrial restructuring in developing countries: The case of India
Industrial metabolism and sustainable developmentIndustry and sustainable developmentResource utilizationEnergy efficiency: An overviewEnergy use in Indian industry: A case-studyConclusionsReferences
5. Evolution, sustainability, and industrial metabolism
IntroductionTechnical progress and reductionismThe mechanical paradigmThe evolution of ecological structureDiscussion
Part 2: Case-studies
6. Industrial metabolism at the national level: A case-study on chromium and lead pollution in Sweden, 1880-1980
IntroductionThe use of chromium and lead in SwedenCalculation of emissionsThe development of emissions over timeThe emerging immission landscapeConclusionsReferences
7. Industrial metabolism at the regional level: The Rhine Basin
IntroductionGeographic features of the Rhine basinMethodologyThe example of cadmiumConclusionsReferences
8. Industrial metabolism at the regional and local level: A case-study on a Swiss region
IntroductionMethodologyResultsConclusionsReferences
9. A historical reconstruction of carbon monoxide and methane emissions in the United States, 1880-1980
IntroductionCarbon monoxide (CO)Methane (CH4)References
10. Sulphur and nitrogen emission trends for the United States: An application of the materials flow approach
IntroductionSulphur emissionsNitrogen oxides emissionsConclusionReferences
11. Consumptive uses and losses of toxic heavy metals in the United States, 1880-1980
IntroductionProduction-related heavy metal emissionsEmissions coefficients for productionConsumption-related heavy metal emissionsEmissions coefficient for consumptionHistorical usage patternsConclusionsReferences
AppendixPart 3: Further implications
12. The precaution principle in environmental management
IntroductionPrecaution and "industrial metabolism"Precaution: A case-studyHistory of the precaution principleThe precaution principle in international agreementsPrecaution on the European stagePrecaution as a science-politics gamePrecaution on the global stageReferences
13. Transfer of clean(er) technologies to developing countries
IntroductionSustainable developmentEnvironmentally sound technology, clean(er) technologyIndustrial metabolismKnowledge and technology transferEndogenous capacityCrucial elements of endogenous capacity-buildingInternational cooperation for clean(er) technologiesConclusionsTwo case-studiesReferencesBibliography
14. A plethora of paradigms: Outlining an information system on physical exchanges between the economy and nature
IntroductionDistinguishing between "harmful" and "harmless" characteristics of socio-economic metabolism with its natural environmentOutline of an information system for the metabolism of the socio-economic system with its natural environmentAn empirical example for ESIs: Material balances and intensities for the Austrian economyPurposive interventions into life processes (PILs)ConclusionsReferences
BibliographyContributors
Note to the reader from the UNUAcknowledgementsIntroduction
Part 1: General implications
1. Industrial metabolism: Theory and policy
What is industrial metabolism?The materials cycleMeasures of industrial metabolismPolicy implications of the industrial metabolism perspectiveReferences
2. Ecosystem and the biosphere: Metaphors for human-induced material flows
IntroductionThe ecosystem analogueThe environmental spheres analogue: Atmosphere, hydrosphere, lithosphere, and biosphereSummary and conclusionsReferences
3. Industrial restructuring in industrial countries
IntroductionIdentifying indicators of environmentally relevant structural changeStructural change as environmental reliefEnvironmentally relevant structural change: Empirical analysisTypology of environmentally relevant structural changeSpecific conclusionsGeneral conclusions
4. Industrial restructuring in developing countries: The case of India
Industrial metabolism and sustainable developmentIndustry and sustainable developmentResource utilizationEnergy efficiency: An overviewEnergy use in Indian industry: A case-studyConclusionsReferences
5. Evolution, sustainability, and industrial metabolism
IntroductionTechnical progress and reductionismThe mechanical paradigmThe evolution of ecological structureDiscussion
Part 2: Case-studies
6. Industrial metabolism at the national level: A case-study on chromium and lead pollution in Sweden, 1880-1980
IntroductionThe use of chromium and lead in SwedenCalculation of emissionsThe development of emissions over timeThe emerging immission landscapeConclusionsReferences
7. Industrial metabolism at the regional level: The Rhine Basin
IntroductionGeographic features of the Rhine basinMethodologyThe example of cadmiumConclusionsReferences
8. Industrial metabolism at the regional and local level: A case-study on a Swiss region
IntroductionMethodologyResultsConclusionsReferences
9. A historical reconstruction of carbon monoxide and methane emissions in the United States, 1880-1980
IntroductionCarbon monoxide (CO)Methane (CH4)References
10. Sulphur and nitrogen emission trends for the United States: An application of the materials flow approach
IntroductionSulphur emissionsNitrogen oxides emissionsConclusionReferences
11. Consumptive uses and losses of toxic heavy metals in the United States, 1880-1980
IntroductionProduction-related heavy metal emissionsEmissions coefficients for productionConsumption-related heavy metal emissionsEmissions coefficient for consumptionHistorical usage patternsConclusionsReferences
AppendixPart 3: Further implications
12. The precaution principle in environmental management
IntroductionPrecaution and "industrial metabolism"Precaution: A case-studyHistory of the precaution principleThe precaution principle in international agreementsPrecaution on the European stagePrecaution as a science-politics gamePrecaution on the global stageReferences
13. Transfer of clean(er) technologies to developing countries
IntroductionSustainable developmentEnvironmentally sound technology, clean(er) technologyIndustrial metabolismKnowledge and technology transferEndogenous capacityCrucial elements of endogenous capacity-buildingInternational cooperation for clean(er) technologiesConclusionsTwo case-studiesReferencesBibliography
14. A plethora of paradigms: Outlining an information system on physical exchanges between the economy and nature
IntroductionDistinguishing between "harmful" and "harmless" characteristics of socio-economic metabolism with its natural environmentOutline of an information system for the metabolism of the socio-economic system with its natural environmentAn empirical example for ESIs: Material balances and intensities for the Austrian economyPurposive interventions into life processes (PILs)ConclusionsReferences
BibliographyContributors
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