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Industrial Ecology (industrial + ecology)
Selected AbstractsHandbook of Input-Output Economics in Industrial Ecology edited by Sangwon SuhJOURNAL OF INDUSTRIAL ECOLOGY, Issue 5 2009Helga Weisz No abstract is available for this article. [source] The Indirect Effects of Industrial EcologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 3 2009Reid Lifset [source] Complexity and Industrial EcologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 2 2009Foundations for a Transformation From Analysis to Action First page of article [source] Understanding of Complexity Expands the Reach of Industrial EcologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 2 2009John R. Ehrenfeld No abstract is available for this article. [source] The Journal of Industrial Ecology gratefully acknowledges the financial support of THE EDUCATIONAL FOUNDATION OF AMERICAJOURNAL OF INDUSTRIAL ECOLOGY, Issue 3 2008Article first published online: 25 SEP 200 [source] The Quantitative and the Qualitative in Industrial EcologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 2 2008Reid Lifset [source] Metamorphosis of the Journal of Industrial EcologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 1 2008Reid Lifset [source] Advocacy and Objectivity in Industrial EcologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 4 2006John R. Ehrenfeld First page of article [source] Can Industrial Ecology be the "Science of Sustainability"?JOURNAL OF INDUSTRIAL ECOLOGY, Issue 1-2 2004John R. Ehrenfeld No abstract is available for this article. [source] Industrial Ecology and EducationJOURNAL OF INDUSTRIAL ECOLOGY, Issue 3 2001Helge Brattebř [source] Environmental Management Systems A Partner for Industrial Ecology?JOURNAL OF INDUSTRIAL ECOLOGY, Issue 1 2001John R. Ehrenfeld [source] Reviews: Industrial Ecology: Environmental Chemistry and Hazardous WasteJOURNAL OF INDUSTRIAL ECOLOGY, Issue 1 2001Article first published online: 8 FEB 200 [source] Industrial Ecology Begets a SocietyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 3 2000John Ehrenfeld [source] The Ecosystem: Model or Metaphor?JOURNAL OF INDUSTRIAL ECOLOGY, Issue 2 2010Epistemological Difficulties in Industrial Ecology Summary Industrial ecology offers an original way of looking at economic activities. The approach is based on an analogy between certain objects studied by the science of ecology (ecosystems, metabolisms, symbiosis, biocenosis, etc.) and industrial systems. However, this analogical relationship raises difficulties due to the various interpretations to which it is open. Although there is agreement regarding its heuristic function, the analogy can nevertheless be understood either as a model or as a metaphor. The present article first attempts to show how models differ from metaphors. It then sets out to justify the epistemological relevance of this distinction for industrial ecology research. The reflection should thus contribute to clarifying the debate on the (supposed or desired) role of analogy in the field of industrial ecology and heighten the interest this field of investigation represents for implementing sustainable development. [source] Industrial ecology, life cycles, supply chains: differences and interrelationsBUSINESS STRATEGY AND THE ENVIRONMENT, Issue 5 2004Stefan Seuring Within recent years, various concepts have arisen in environmental management that directly address the flow of material (and information) along life cycles or supply chains and thereby relate to inter-organizational management aspects. These include industrial ecology (IE), life-cycle management, closed-loop supply chains, integrated chain management and green/environmental or sustainable supply chain management. It is not clear how these concepts relate to each other and whether or how they are different. Starting with sustainable development three criteria are identified that allow the comparison of the four concepts. Building on definitions the concepts are discussed and analysed using the three criteria while also identifying a distinctive feature of each approach. The criteria reveal that the concepts take a specific approach to study material flows in their particular system boundaries. This also relates to the time frame usually applied within the concept as well as the relevant actor network taken into account. Beyond these differences, it arises that the concepts have their strengths on different levels, which leads to a framework for the interrelation of the concepts. Copyright © 2004 John Wiley & Sons, Ltd and ERP Environment. [source] Changing economies of scale , synergies between implementation of an ecological tax reform and development of industrial ecosystemsBUSINESS STRATEGY AND THE ENVIRONMENT, Issue 6 2001Christoph Bey In this paper an investigation is presented into the long-term effects of an ecological tax reform. Exploring time frames of different length, the paper considers the reform's effects on manufacturing systems, especially on economies of scale. Industrial ecology, a framework for restructuring into industrial ecosystems, is one attempt at transforming the socio-economic system for sustainability. The paper points out the synergetic effects an ecological tax reform has with those restructuring efforts for sustainable industry and society. For that purpose, the economies of scale in the current linear production system and those found in the closed-loop circular structures of industrial ecosystems are compared, and the paper is concluded by a discussion of opportunity costs of implementation of an ecological tax reform and industrial ecological restructuring. Copyright © 2001 John Wiley & Sons, Ltd and ERP Environment [source] The challenge of hazardous waste management in a sustainable environment: insights from electronic recovery lawsCORPORATE SOCIAL RESPONSIBILITY AND ENVIRONMENTAL MANAGEMENT, Issue 1 2005J. Halluite Abstract New and pending regulations requiring product take-back by manufacturers at the time of disposal are intended to create a new era of industrial ecology and environmental sustainability. However, the intended benefits of the current legislation can be confounded by obsolescence in product design based upon advances in science and technology and also by the introduction of more environmentally benign product designs. Recent changes in legislation are identified and, based upon an extensive industry survey, their resultant likely impacts on consumer electronics are considered. This industry study illustrates that unless the impacted products simultaneously possess both stable designs and input requirements then significant secondary environmental issues related to the waste storage will be encountered. Inherently, these issues cause serious societal problems when hazardous substances are involved , which is the case with many products from the electronics industry. Copyright © 2005 John Wiley & Sons, Ltd and ERP Environment. [source] Regional industrial recycling network in energy supply,the case of Joensuu city, FinlandCORPORATE SOCIAL RESPONSIBILITY AND ENVIRONMENTAL MANAGEMENT, Issue 3 2002Jouni Korhonen Industrial recycling networks offer an example of the practical application of some of the industrial ecology (IE) principles. In the industrial ecosystem and eco-industrial park approaches the material cycles and energy cascades in a natural ecosystem serve as the metaphoric vision for a local/regional industrial system in which waste material and waste (residual) energy are utilized through cooperation between the actors in the system. In this paper, a local/regional recycling network scenario is presented with the energy supply system of the city of Joensuu in Finland. The conditions of success include the co-production of heat and electricity (heat and power, CHP), waste energy utilization for industrial steam and renewable flow use as fuel. Some difficulties in the industrial ecosystem-type development of the system are discussed. Methodological suggestions for industrial ecosystem and eco-industrial park case studies are considered and the experience from this Finnish case is discussed in terms of wider application of IE in local/regional economic energy systems. For future research on the theme, it is suggested that regional industrial ecology may benefit from regional economics theory and, vice versa, regional economics theory may find a new area of application in regional industrial ecology. Copyright © 2002 John Wiley & Sons, Ltd. and ERP Environment. [source] The Ecosystem: Model or Metaphor?JOURNAL OF INDUSTRIAL ECOLOGY, Issue 2 2010Epistemological Difficulties in Industrial Ecology Summary Industrial ecology offers an original way of looking at economic activities. The approach is based on an analogy between certain objects studied by the science of ecology (ecosystems, metabolisms, symbiosis, biocenosis, etc.) and industrial systems. However, this analogical relationship raises difficulties due to the various interpretations to which it is open. Although there is agreement regarding its heuristic function, the analogy can nevertheless be understood either as a model or as a metaphor. The present article first attempts to show how models differ from metaphors. It then sets out to justify the epistemological relevance of this distinction for industrial ecology research. The reflection should thus contribute to clarifying the debate on the (supposed or desired) role of analogy in the field of industrial ecology and heighten the interest this field of investigation represents for implementing sustainable development. [source] Harnessing Catastrophe to Promote Resource Recovery and Eco-industrial DevelopmentJOURNAL OF INDUSTRIAL ECOLOGY, Issue 4 2009Kristen B. Ardani Summary Hurricane Katrina devastated New Orleans, Louisiana, USA, causing widespread damage to industry, housing, and infrastructure. The area of New Orleans East was particularly devastated, including a cluster of industries, such as a major food-processing plant, manufacturing facilities, and bulk material and gas processors. Although this area was well suited for resource recovery and eco-industrial linkages, little progress has been made in implementation. This article explores New Orleans as a case study in the application of industrial ecology to disaster management. Hurricane Katrina's damage to New Orleans resulted in a significant increase in the amount of waste flowing into New Orleans East, which precipitated a massive expenditure of federal funds toward debris management. Those circumstances created an unprecedented opportunity to capitalize a resource recovery program and to establish eco-industrial relationships, both of which would have resulted in new jobs and environmental improvement. Yet straightforward opportunities for resource recovery and eco-industrial linkage were overlooked or dismissed, in spite of antilandfill activism from the environmental community and formal recommendations for recycling from scientists and other professionals. We describe the specific resource recovery and eco-industrial opportunities that were available to New Orleans East, especially those that were magnified by Hurricane Katrina, and analyze the barriers that prevented their actualization. We also provide recommendations for overcoming barriers to resource recovery and eco-industrial progress with the goal that future postcatastrophe scenarios may benefit from more effective use of relief and recovery funding. [source] Resource Consumption of New Urban Construction in ChinaJOURNAL OF INDUSTRIAL ECOLOGY, Issue 2 2007John E. Fernández The volume of China's recent additions to its urban-built environment is unprecedented. China now accounts for half of all new building area in the world. Increases in building stocks of all types have occurred during an extended period of accelerated growth of the national economy. This expansion promises to continue through 2030. As a result, the rapid conversion of land from low-density agricultural and light manufacturing to new urban zones of high density and material-intensive commercial and residential buildings has consumed enormous quantities of domestic and imported resources and has irreversibly altered the Chinese landscape. This article examines the consumption of material resources dedicated to Chinese building construction through a survey and analysis of the material intensity of three major building types. This provides a basis for outlining the emerging life-cycle issues of recent additions to the built environment and of continued construction. With this as the starting point, the field of industrial ecology can work toward formulating strategies for a circular economy that include a resource-efficient urban China. [source] Material Flows in a Social Context: A Vietnamese Case Study Combining the Materials Flow Analysis and Action-in-Context FrameworksJOURNAL OF INDUSTRIAL ECOLOGY, Issue 1 2007Marieke HOBBES Summary Materials flow analysis (MFA) is one of the central achievements of industrial ecology. One direction in which one can move MFA beyond mere accounting is by putting the material flows in their social context. This "socially extended MFA" may be carried out at various levels of aggregation. In this article, specific material flows will be linked to concrete actors and mechanisms that cause these flows,using the action-in-context (AiC) framework, which contains, inter alia, both proximate and indirect actors and factors. The case study site is of Tat hamlet in Vietnam, set in a landscape of paddy fields on valley floors surrounded by steep, previously forested slopes. Out of the aggregate MFA of Tat, the study focuses on material flows associated with basic needs and sustainability. The most important actors causing these material flows are farming households, politicians, traders, and agribusiness firms,of which local politicians turned out to be pivotal. The study shows the value of combining MFA with actor-based social analysis. MFA achieves the balanced quantification of the physical system, thus helping to pinpoint key processes. Actor-based analysis adds the causal understanding of what drives these key processes, leading to improved scenarios of the future and the effective identification of target groups and instruments for policy making. [source] Cement Manufacture and the Environment: Part I: Chemistry and TechnologyJOURNAL OF INDUSTRIAL ECOLOGY, Issue 1 2002Hendrik G. van Oss Summary Hydraulic (chiefly portland) cement is the binding agent in concrete and mortar and thus a key component of a country's construction sector. Concrete is arguably the most abundant of all manufactured solid materials. Portland cement is made primarily from finely ground clinker, which itself is composed dominantly of hydraulically active calcium silicate minerals formed through high-temperature burning of limestone and other materials in a kiln. This process requires approximately 1.7 tons of raw materials per ton of clinker produced and yields about 1 ton of carbon dioxide (CO2) emissions, of which cal-cination of limestone and the combustion of fuels each con-tribute about half. The overall level of CO2 output makes the cement industry one of the top two manufacturing industry sources of greenhouse gases; however, in many countries, the cement industry's contribution is a small fraction of that from fossil fuel combustion by power plants and motor vehicles. The nature of clinker and the enormous heat requirements of its manufacture allow the cement industry to consume a wide variety of waste raw materials and fuels, thus providing the opportunity to apply key concepts of industrial ecology, most notably the closing of loops through the use of by-products of other industries (industrial symbiosis). In this article, the chemistry and technology of cement manufacture are summarized. In a forthcoming companion ar-ticle (part II), some of the environmental challenges and op-portunities facing the cement industry are described. Because of the size and scope of the U.S. cement industry, the analysis relies primarily on data and practices from the United States. [source] The sustainability spectrum and the sciences of sustainabilityBUSINESS STRATEGY AND THE ENVIRONMENT, Issue 7 2008Thomas P. Seager Abstract Understanding sustainability requires integrating multiple perspectives and investigative methods to explain multidimensional concepts. However, the traditional approach to research and education is organized along disciplinary lines that tend to exclude awareness of contributions in one field that may inform problems in another. This presents a serious obstacle to advancing an understanding of sustainability, which is focused on the interactions between industrial and ecological systems, rather than examining each system independently. This paper offers a broad description of different perspectives with regard to sustainability including security, reliability, resilience and renewal, and briefly describes the emerging sciences essential to understanding sustainability: ecological economics, industrial ecology, ecosystem health, and sustainable decision making, policy and design. In the latter, the challenges have yet to find an academic locus. Nonetheless, it is in this area that knowledge of sustainability science must be applied and it is consequently most proximate to business leaders, policy makers and designers. Copyright © 2008 John Wiley & Sons, Ltd and ERP Environment. [source] Industrial ecology, life cycles, supply chains: differences and interrelationsBUSINESS STRATEGY AND THE ENVIRONMENT, Issue 5 2004Stefan Seuring Within recent years, various concepts have arisen in environmental management that directly address the flow of material (and information) along life cycles or supply chains and thereby relate to inter-organizational management aspects. These include industrial ecology (IE), life-cycle management, closed-loop supply chains, integrated chain management and green/environmental or sustainable supply chain management. It is not clear how these concepts relate to each other and whether or how they are different. Starting with sustainable development three criteria are identified that allow the comparison of the four concepts. Building on definitions the concepts are discussed and analysed using the three criteria while also identifying a distinctive feature of each approach. The criteria reveal that the concepts take a specific approach to study material flows in their particular system boundaries. This also relates to the time frame usually applied within the concept as well as the relevant actor network taken into account. Beyond these differences, it arises that the concepts have their strengths on different levels, which leads to a framework for the interrelation of the concepts. Copyright © 2004 John Wiley & Sons, Ltd and ERP Environment. [source] Policy implications of industrial ecology conceptionsBUSINESS STRATEGY AND THE ENVIRONMENT, Issue 5 2004Hilde N. Opoku The way industrial ecology (IE) is conceptualized determines the concept's potential. Different conceptualizations of IE suggest different political solutions and different focuses on the environment. It is not in itself problematic that the debate points in different political directions. The problem occurs when ideologically based argumentation is not made explicit, but instead presented as necessary premises in order to meet IE objectives. An analysis of the implications when two of these conceptions are implemented as strategies for solid waste management illustrates this claim. This author suggests that the contributors to the field make a clear distinction between scientific discussions regarding the analytical framework and policy principles, and discussions regarding practical applications. Only then can the assumption that the concept of industrial ecology has the potential to be a robust and unifying analytical framework and policy principle stand. Copyright © 2004 John Wiley & Sons, Ltd and ERP Environment. [source] Networking for knowledge transfer: towards an understanding of local authority roles in regional industrial ecosystem managementBUSINESS STRATEGY AND THE ENVIRONMENT, Issue 5 2004Fredrik von Malmborg Knowledge of the changing roles of local authorities (LAs) in relation to industry would provide an important insight for development and management of industrial ecology at the regional level. Drawing on empirical studies in Sweden, this paper develops a theoretical understanding of the roles of LAs in knowledge transfer in regional environmental management networks. It is suggested that LAs, besides initiating networks and being network brokers and managers, can act as ,knowledge banks' or ,knowledge brokers'. As a ,knowledge bank', officers in the LA hold the knowledge transferred to companies and engage closely with the companies in small active networks. As ,knowledge brokers', LA officers are less active and mainly help companies to get in contact with consultants and technical experts who hold the knowledge needed for developing environmental management in the companies. In all, the roles identified could be seen as more specific approaches to be taken by the LA when playing the overall role of an institutional anchor tenant, facilitating development and management of regional industrial ecosystems. Copyright © 2004 John Wiley & Sons, Ltd and ERP Environment. [source] |