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Mechanical chemistry. --- Recycling (Waste, etc.) --- Conversion of waste products --- Recovery of natural resources --- Recovery of waste materials --- Resource recovery --- Waste recycling --- Waste reuse --- Conservation of natural resources --- Refuse and refuse disposal --- Energy conservation --- Salvage (Waste, etc.) --- Waste products --- Mechanically induced chemical reactions --- Mechanochemistry --- Stress induced chemical reactions --- Chemistry, Physical and theoretical
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waste recycling --- sustainable materials --- low-emission materials --- low-noise materials --- living materials --- bio-based materials --- Factory and trade waste --- Manufactures --- Déchets industriels --- Produits manufacturés --- Management --- Environmental aspects --- Gestion --- Aspect de l'environnement --- Management. --- Environmental aspects. --- Manufactured goods --- Manufactured products --- Products --- Products, Manufactured --- Commercial products --- Manufacturing industries --- Factory waste --- Industrial effluents --- Industrial wastes --- Solid waste management --- Trades-waste --- Wastewaters --- Plant engineering --- Centralized industrial waste treatment facilities --- Pollution --- Refuse and refuse disposal --- Waste products
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Urbanisation and climate change are pushing cities to find novel pathways leading to a sustainable future. The urban context may be viewed as a new experimentation space to accelerate the transition to a circular economy. Urban symbiosis and the circular economy are emerging concepts attracting more and more attention within the urban context. Moreover, new business models are emerging around sharing and peer-to-peer practices, which are challenging existing roles of actors in society. These developments are having an important impact on the flows of resources and the use of the city infrastructure, and each research area has taken a different perspective in the analysis of such impacts. This Special Issue aims to explore what a “circular city” could constitute and how and why cities engage in circularity. This Special Issue includes seven high-quality papers on the theories and practices of circular cities. Actors, concepts, methods, tools, the barriers to and enablers of circular cities are discussed and a solid base and inspiration for the future development of circular cities are provided.
circular economy --- business ecosystem --- glocality --- mobile phone repair --- the Netherlands --- China --- Poland --- sharing economy --- sharing cities --- sustainable urban governance --- sharing business models --- sustainable business models --- textile industry --- energy footprint --- decoupling --- logarithmic mean Divisia index --- Shaoxing --- design --- industrial ecology --- infrastructure --- participatory action research --- socio-ecological-technical systems --- cooperation --- game theory --- multi-criteria decision analysis --- scenario analysis --- urbanization and climate change --- multilevel logistic regression --- citizens --- extra mitigation behavior --- EU member states --- profitability analysis --- municipal solid waste processing --- incineration --- waste recycling --- torrefaction --- COVID-19 --- n/a
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The aim of this book is to present quantitative and qualitative aspects of logistics operations supporting recycling and reuse. In individual chapters, the authors address various issues related to reverse network configuration and the organization of collection, transportation, warehousing and reprocessing activities. Moreover a number of best practice examples from different countries and industries are provided. This book will be a valuable resource for both academics and practitioners who want to deepen their knowledge of logistics operations and management for recycling and reuse.
Environmental engineering. --- Biotechnology. --- Engineering economics. --- Engineering economy. --- Production management. --- Environmental Engineering/Biotechnology. --- Engineering Economics, Organization, Logistics, Marketing. --- Operations Management. --- Manufacturing management --- Industrial management --- Economy, Engineering --- Engineering economics --- Industrial engineering --- Chemical engineering --- Genetic engineering --- Environmental control --- Environmental effects --- Environmental stresses --- Engineering --- Environmental health --- Environmental protection --- Pollution --- Sustainable engineering --- Recycling (Waste, etc.) --- Business logistics. --- Supply chain management --- Logistics --- Conversion of waste products --- Recovery of natural resources --- Recovery of waste materials --- Resource recovery --- Waste recycling --- Waste reuse --- Conservation of natural resources --- Refuse and refuse disposal --- Energy conservation --- Salvage (Waste, etc.) --- Waste products
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The growing demand for new forms of energy has led to a significant increase in the use of biomass as a primary source of energy. Although in many situations, the use of biomass is clearly well studied, in other cases, it is a new world, where knowledge is absent regarding how to best value and recycle these forms of biomass, many of which are classified as waste as a result of production processes. Thermochemical conversion technologies could provide an alternative for the processing of these materials, allowing for a reuse value through the transformation of their properties. The purpose of this Special Issue is to contribute to the increase in knowledge in this area when new forms of biomass appear that are cheaper and more available, but also are potentially more problematic, namely in terms of the effects that can be associated with the use of these new products.This Special Issue is focused on the recycling and recovery of biomass materials. Several innovative and alternative concepts can be presented, and the topics of energy recovery, circular economy, life cycle assessment, and supply chain could play a major role. Models on various temporal and geographical scales to understand the conditions of technical as well as organizational change are welcome, as are new methods of modeling that can fulfil technical and physical boundary conditions and consider economic, environmental, and social aspects.
Technology: general issues --- olive pomace --- thermochemical conversion --- energy recovery --- circular economy --- biomass waste --- feedstock --- waste cooking oil --- engine characteristics --- exhaust emissions --- specific energy consumption --- fuel consumption --- abattoir wastes --- biogas --- biofertilizer --- anaerobic digestion --- environmental pollution --- potassium carbonate --- cocoa pod husk --- biomass ash --- batik --- clean production --- natural --- organic materials --- Semarang City --- commercial crab species --- red king crab --- waste processing --- hepatopancreas --- proteases --- hyaluronidase --- flotation --- seawater --- collectors --- vegetable oil --- recycled vegetable oil --- waste lubricating oil --- characterization --- used oil management --- invasive forest species --- wood pellets --- sustainability --- value chain --- biodegradation --- bioplastics --- lignocellulosic fibers --- microbial polyesters --- energy recovery of agricultural waste --- biomass pellets --- ENplus® --- essential oil production --- agro-waste recycling --- mushroom cultivation --- closing the loop --- HPLC-MS analysis --- residue valorization --- hydrothermal liquefaction --- biorefinery --- macroalgae --- value-added products --- olive pomace --- thermochemical conversion --- energy recovery --- circular economy --- biomass waste --- feedstock --- waste cooking oil --- engine characteristics --- exhaust emissions --- specific energy consumption --- fuel consumption --- abattoir wastes --- biogas --- biofertilizer --- anaerobic digestion --- environmental pollution --- potassium carbonate --- cocoa pod husk --- biomass ash --- batik --- clean production --- natural --- organic materials --- Semarang City --- commercial crab species --- red king crab --- waste processing --- hepatopancreas --- proteases --- hyaluronidase --- flotation --- seawater --- collectors --- vegetable oil --- recycled vegetable oil --- waste lubricating oil --- characterization --- used oil management --- invasive forest species --- wood pellets --- sustainability --- value chain --- biodegradation --- bioplastics --- lignocellulosic fibers --- microbial polyesters --- energy recovery of agricultural waste --- biomass pellets --- ENplus® --- essential oil production --- agro-waste recycling --- mushroom cultivation --- closing the loop --- HPLC-MS analysis --- residue valorization --- hydrothermal liquefaction --- biorefinery --- macroalgae --- value-added products
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Urbanisation and climate change are pushing cities to find novel pathways leading to a sustainable future. The urban context may be viewed as a new experimentation space to accelerate the transition to a circular economy. Urban symbiosis and the circular economy are emerging concepts attracting more and more attention within the urban context. Moreover, new business models are emerging around sharing and peer-to-peer practices, which are challenging existing roles of actors in society. These developments are having an important impact on the flows of resources and the use of the city infrastructure, and each research area has taken a different perspective in the analysis of such impacts. This Special Issue aims to explore what a “circular city” could constitute and how and why cities engage in circularity. This Special Issue includes seven high-quality papers on the theories and practices of circular cities. Actors, concepts, methods, tools, the barriers to and enablers of circular cities are discussed and a solid base and inspiration for the future development of circular cities are provided.
Research & information: general --- Technology: general issues --- circular economy --- business ecosystem --- glocality --- mobile phone repair --- the Netherlands --- China --- Poland --- sharing economy --- sharing cities --- sustainable urban governance --- sharing business models --- sustainable business models --- textile industry --- energy footprint --- decoupling --- logarithmic mean Divisia index --- Shaoxing --- design --- industrial ecology --- infrastructure --- participatory action research --- socio-ecological-technical systems --- cooperation --- game theory --- multi-criteria decision analysis --- scenario analysis --- urbanization and climate change --- multilevel logistic regression --- citizens --- extra mitigation behavior --- EU member states --- profitability analysis --- municipal solid waste processing --- incineration --- waste recycling --- torrefaction --- COVID-19 --- circular economy --- business ecosystem --- glocality --- mobile phone repair --- the Netherlands --- China --- Poland --- sharing economy --- sharing cities --- sustainable urban governance --- sharing business models --- sustainable business models --- textile industry --- energy footprint --- decoupling --- logarithmic mean Divisia index --- Shaoxing --- design --- industrial ecology --- infrastructure --- participatory action research --- socio-ecological-technical systems --- cooperation --- game theory --- multi-criteria decision analysis --- scenario analysis --- urbanization and climate change --- multilevel logistic regression --- citizens --- extra mitigation behavior --- EU member states --- profitability analysis --- municipal solid waste processing --- incineration --- waste recycling --- torrefaction --- COVID-19
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circular economy --- recycling --- waste utilization --- resource recovery --- sustainable supply chain --- material efficiency --- Recycling (Waste, etc.) --- Conservation of natural resources --- Natural resources --- Conservation of natural resources. --- Conservation of Natural Resources --- Recyclage (Déchets, etc.) --- Conservation des ressources naturelles --- Ressources naturelles --- Conservation des ressources naturelles. --- Management --- Gestion --- Management. --- Conversion of waste products --- Recovery of natural resources --- Recovery of waste materials --- Resource recovery --- Waste recycling --- Waste reuse --- Refuse and refuse disposal --- Energy conservation --- Salvage (Waste, etc.) --- Waste products --- Resource management (Natural resources) --- Resources management (Natural resources) --- Conservation of resources --- Resources conservation, Natural --- Environmental protection --- Natural resources conservation areas --- Carrying Capacity --- Deforestation --- Desertification --- Environmental Protection --- Natural Resources Conservation --- Protection, Environmental --- Capacities, Carrying --- Capacity, Carrying --- Carrying Capacities --- Conservation, Natural Resources --- Natural Resources --- Natural resources conservation --- National resources --- Resources, Natural --- Resource-based communities --- Resource curse --- Conservation --- Economic aspects
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The growing demand for new forms of energy has led to a significant increase in the use of biomass as a primary source of energy. Although in many situations, the use of biomass is clearly well studied, in other cases, it is a new world, where knowledge is absent regarding how to best value and recycle these forms of biomass, many of which are classified as waste as a result of production processes. Thermochemical conversion technologies could provide an alternative for the processing of these materials, allowing for a reuse value through the transformation of their properties. The purpose of this Special Issue is to contribute to the increase in knowledge in this area when new forms of biomass appear that are cheaper and more available, but also are potentially more problematic, namely in terms of the effects that can be associated with the use of these new products.This Special Issue is focused on the recycling and recovery of biomass materials. Several innovative and alternative concepts can be presented, and the topics of energy recovery, circular economy, life cycle assessment, and supply chain could play a major role. Models on various temporal and geographical scales to understand the conditions of technical as well as organizational change are welcome, as are new methods of modeling that can fulfil technical and physical boundary conditions and consider economic, environmental, and social aspects.
Technology: general issues --- olive pomace --- thermochemical conversion --- energy recovery --- circular economy --- biomass waste --- feedstock --- waste cooking oil --- engine characteristics --- exhaust emissions --- specific energy consumption --- fuel consumption --- abattoir wastes --- biogas --- biofertilizer --- anaerobic digestion --- environmental pollution --- potassium carbonate --- cocoa pod husk --- biomass ash --- batik --- clean production --- natural --- organic materials --- Semarang City --- commercial crab species --- red king crab --- waste processing --- hepatopancreas --- proteases --- hyaluronidase --- flotation --- seawater --- collectors --- vegetable oil --- recycled vegetable oil --- waste lubricating oil --- characterization --- used oil management --- invasive forest species --- wood pellets --- sustainability --- value chain --- biodegradation --- bioplastics --- lignocellulosic fibers --- microbial polyesters --- energy recovery of agricultural waste --- biomass pellets --- ENplus® --- essential oil production --- agro-waste recycling --- mushroom cultivation --- closing the loop --- HPLC-MS analysis --- residue valorization --- hydrothermal liquefaction --- biorefinery --- macroalgae --- value-added products
Choose an application
The growing demand for new forms of energy has led to a significant increase in the use of biomass as a primary source of energy. Although in many situations, the use of biomass is clearly well studied, in other cases, it is a new world, where knowledge is absent regarding how to best value and recycle these forms of biomass, many of which are classified as waste as a result of production processes. Thermochemical conversion technologies could provide an alternative for the processing of these materials, allowing for a reuse value through the transformation of their properties. The purpose of this Special Issue is to contribute to the increase in knowledge in this area when new forms of biomass appear that are cheaper and more available, but also are potentially more problematic, namely in terms of the effects that can be associated with the use of these new products.This Special Issue is focused on the recycling and recovery of biomass materials. Several innovative and alternative concepts can be presented, and the topics of energy recovery, circular economy, life cycle assessment, and supply chain could play a major role. Models on various temporal and geographical scales to understand the conditions of technical as well as organizational change are welcome, as are new methods of modeling that can fulfil technical and physical boundary conditions and consider economic, environmental, and social aspects.
olive pomace --- thermochemical conversion --- energy recovery --- circular economy --- biomass waste --- feedstock --- waste cooking oil --- engine characteristics --- exhaust emissions --- specific energy consumption --- fuel consumption --- abattoir wastes --- biogas --- biofertilizer --- anaerobic digestion --- environmental pollution --- potassium carbonate --- cocoa pod husk --- biomass ash --- batik --- clean production --- natural --- organic materials --- Semarang City --- commercial crab species --- red king crab --- waste processing --- hepatopancreas --- proteases --- hyaluronidase --- flotation --- seawater --- collectors --- vegetable oil --- recycled vegetable oil --- waste lubricating oil --- characterization --- used oil management --- invasive forest species --- wood pellets --- sustainability --- value chain --- biodegradation --- bioplastics --- lignocellulosic fibers --- microbial polyesters --- energy recovery of agricultural waste --- biomass pellets --- ENplus® --- essential oil production --- agro-waste recycling --- mushroom cultivation --- closing the loop --- HPLC-MS analysis --- residue valorization --- hydrothermal liquefaction --- biorefinery --- macroalgae --- value-added products
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This book introduces a variety of treatment technologies, such as physical, chemical, and biological methods for the treatment of gas emissions, wastewater, and solid waste. It provides a useful source of information for engineers and specialists, as well as for undergraduate and postgraduate students, in the areas of environmental science and engineering.
Technology: general issues --- adsorption --- chromium --- competition --- fluoride --- soil and water pollution --- municipal solid waste management --- life cycle assessment --- life cycle impacts --- life cycle stages --- eutrophication --- global warming --- human health --- acidification --- Harare --- Zimbabwe --- iron tailings --- ammonium sulfate roasting process --- reaction mechanism --- kinetics --- carbon footprint --- CiteSpace --- a visual analysis --- metronidazole --- porous carbon --- surface modification --- wastewater treatment --- membrane fouling --- molecular composition of foulant --- transparent exopolymer particles (TEP) --- fouling propensities --- waste incineration --- cyclone flue --- gas-solid separation --- numerical simulation --- polysaccharides --- microfiltration process --- calcium ion --- copper adsorption --- magnetized pine needle biochar --- isotherms --- FTIR and XRD studies --- VLE --- CO2 capture --- amine --- DEA-12-PD --- 12-HEPP --- porosity properties --- adsorption capacity --- carbon dioxide storage --- melamine Schiff bases --- surface area --- energy --- antimony --- mineral processing --- potentially toxic elements --- pollution characteristics --- solid waste --- cleaner production --- electronic waste --- recycling --- waste printed circuit boards --- waste EAF slag --- magnesium silicate hydrate --- radioactive waste --- stabilization/solidification --- strontium --- leaching --- membrane technologies --- biofouling --- composite membranes --- polymer blending --- wastewater treatment plants --- environmental costs --- PID control --- dynamic assessment of performance --- heavy metals --- hybrid materials --- functionalized --- Schiff base --- lead --- Langmuir and Freundlich --- carbon capture and storage (CCS) --- offshore gas field --- techno-economic analysis --- calcium oxide nanoparticles --- calcination --- blended cement paste --- mix design --- compressive strength --- bulk density --- transition metal dichalcogenides --- liquid exfoliation --- quenching --- waste collection route planning --- traveling salesman problem --- genetic algorithms --- steelmaking --- bentonite --- solid waste management --- sustainable materials --- biomass --- characterization --- lignocellulosic --- bioenergy --- water treatment --- nanomaterials --- functionalization --- lime --- mineral nitrogen --- soil pH --- organic carbon --- microbial biomass --- N2O --- batch pyrolysis --- business model --- South Africa --- waste tyres --- circular economy --- environmental sustainability --- mollusk shell --- porous concrete --- construction --- algal biomass --- gasification --- activation energy distribution --- household solid waste --- metal recovery value --- socio-economic benefits --- waste composition of Karachi-Pakistan --- waste management --- waste recycling --- ash-free coal --- CO2 gasification --- coal structure --- tri-high coal --- nanoparticles --- ZnO --- equilibrium --- kinetic --- thermodynamic --- phosphate --- aqueous solution --- sustainable synthetic slag production --- energy recovery --- metal spheres --- fixed bed regenerator --- waste and energy nexus --- antibiotics --- competitive sorption --- retention/release --- sorbents --- surface-flow constructed wetland --- nitrogen load --- nitrate --- ammonium --- organic nitrogen --- hydraulic load --- hydraulic residence time --- temperature --- denitrification --- biological uptake --- n/a
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