Kooperativer Bibliotheksverbund

UID:

Format: 1 online resource (882 pages)

Edition: Second edition.

ISBN: 9780443220708

Content: This book, edited by Majeti Narasimha Vara Prasad, explores the intersection of environmental materials and waste management within the framework of a circular economy and pollution abatement. It discusses resource recovery from various waste materials such as biowaste, plastic, and electronic waste, and examines sustainable practices for pollution prevention. The book also delves into the management of specific waste types, including food waste in Thailand, biochar from green waste, and the recovery of rare earth elements from e-waste. The intended audience includes researchers, practitioners, and policymakers interested in sustainable waste management and environmental protection.

Note: Front Cover -- Environmental Materials and Waste -- Environmental Materials and Waste -- Copyright -- Contents -- Contributors -- Preface -- Acknowledgments -- 1 - Recovery of resources from biowaste for pollution prevention -- 1. Introduction -- 2. Biowaste management -- 3. Bioremediation of waste disposed land or existing land fills -- 4. Solid waste management in Indian perspective -- 5. Utilization of biowaste from bioremediation-The case of aquatic weeds -- 6. Conclusion -- References -- 2 - Food waste management in Thailand for sustainable development -- 1. Introduction -- 2. Food waste in Thailand -- 3. Appropriate food waste treatment guidelines -- 3.1 Biodiesel -- 3.2 Incineration -- 3.3 Pyrolysis and gasification -- 3.4 Value-added products and materials -- 3.5 Biogas, biohydrogen, and bioethanol -- 3.6 Microbial fuel cell -- 3.7 Composting and biofertilizer -- 3.8 Animal feed -- 4. Food waste management: A Thai perspective -- 4.1 Community engagement management planning -- 4.2 Food waste management in hospitality sector -- 4.3 Startup business model management -- 5. Conclusions -- Acknowledgments -- References -- Further reading -- 3 - Resources from plastic waste for pollution abatement and circular economy -- 1. Introduction -- 2. Plastic waste for pollution abatement and circular economy -- 3. Coprocessing of plastic waste in cement kilns -- 4. Cost of plastic waste to liquid RDF plant -- 5. Merits of plasma pyrolysis technology (PPT) -- 6. Mission starfish 2030: Restore our ocean and waters -- References -- Further reading -- 4 - Plastic waste in a circular economy -- 1. Introduction -- 2. Classification of plastics in the economy -- 3. Framework for plastic waste management in a circular economy -- 4. Plastic recycling and recovery processes: Opportunities, challenges, and trade-offs -- 4.1 Mechanical recycling process. , 4.2 Organic recycling -- 4.3 Quaternary recycling (energy recovery) -- 5. Concluding remarks -- References -- 5 - Integrated municipal solid waste management for energy recovery and pollution prevention -- 1. Introduction -- 2. Typical landfill gas composition -- 2.1 Learn about alternative options for managing organic waste -- 3. Collecting and treating landfill gas -- 3.1 Landfill gas energy project types -- 3.2 Electricity generation -- 3.3 Direct use of medium-BTU gas -- 3.4 Renewable natural gas -- Acknowledgment -- References -- Further reading -- 6 - Vinasse, a byproduct of the bioethanol industry-A valuable resource for sustainable agriculture and renewable e ... -- 1. Introduction -- 1.1 Biofuel generation and bioethanol production -- 2. Sugarcane vinasse generation -- 3. Characterization of vinasse -- 3.1 Organic and inorganic contents of vinasse -- 4. Application of vinasse -- 4.1 Vinasse as fertilizer -- 4.2 Vinasse as microbiological culture medium -- 4.3 Vinasse in animal feed -- 4.4 Potential of vinasse as a renewable energy matrix -- 4.5 Vinasse as a component of circular economy -- 5. Environmental concerns of vinasse management -- 5.1 Polluting potential of vinasse -- 5.2 Public policies and regulatory frameworks -- 6. Remarks -- References -- 7 - Biochar production from green waste: Remediation potential -- 1. Introduction -- 2. Biochar characterizations -- 3. Biochar composition -- 4. Pyrolysis temperature effect on biochar properties -- 5. Pyrolysis temperature effect on biochar yields -- 5.1 Pyrolysis temperature effect on biochar physicochemical properties -- 5.1.1 Biochar surface morphology -- 5.1.2 Biochar functional groups -- 5.1.3 Biochar cation exchange capacity -- 5.1.4 Biochar water-holding capacity -- 5.1.5 Biochar stability -- 5.1.6 Biochar pH -- 5.1.7 Biochar electrical conductivity -- 6. Biochar adsorption potentials. , 7. Conclusion -- References -- 8 - Biochar-based biocover to reduce landfill CH4 and H2S emissions -- 1. Introduction -- 2. Reduction strategies for landfill gas emissions -- 3. CH4 and H2S emission control by biochar-amended LSC -- 3.1 Promotion in CH4 oxidation of LSC by biochar -- 3.2 H2S removal by biochar as adsorbent -- 3.3 Simultaneous removal of CH4 and H2S by biochar-amended LSC -- 4. Conclusions -- References -- 9 - Biogas production from sewage sludge-Advances in thermal pretreatment -- 1. Introduction -- 2. Temperature-phased anaerobic digestion -- 3. Heat-based pretreatment techniques -- 3.1 Conventional thermal pretreatment -- 3.2 Microwave pretreatment -- 3.3 Thermal hydrolysis pretreatment -- 3.4 Thermal alkaline pretreatment -- 4. Effect of pretreatments and anaerobic digestion on removal of micropollutants -- 5. Conclusions and prospects -- References -- 10 - Fast technology for sludge utilization -- 1. Introduction -- 2. Materials and methods -- 2.1 Tested materials -- 2.2 SS treatment -- 2.3 Determination of Si status of tested materials -- 2.4 Germination test -- 2.5 Greenhouse test -- 2.6 Statistical analysis -- 3. Results and discussion -- 3.1 Material testing -- 3.2 Germination test -- 3.3 Greenhouse test -- 4. Conclusions -- Acknowledgment -- References -- 11 - Circular economy approach as management solution for asbestos waste -- 1. Introduction -- 2. World scenario of asbestos -- 2.1 Worldwide production and consumption -- 2.2 Utilization of asbestos and its waste -- 2.3 Substitutes of asbestos -- 3. Environmental and health impact of asbestos -- 3.1 Environmental impact -- 3.2 Health impact -- 4. Clean-up technologies -- 4.1 Phytoremediation -- 4.1.1 Plant and lichen colonization -- 4.2 Bioremediation -- 5. Case studies -- 5.1 India -- 6. Conclusion -- References -- Further reading. , 12 - Resource potential of natural and synthetic gypsum waste -- 1. Introduction -- 2. Natural gypsum applications and reuse -- 3. Synthetic gypsum -- 4. Flue gas desulfurization gypsum -- 5. Processing FGD gypsum -- 6. Phosphate mineral fertilizers P2O5 -- 7. Production of phosphoric acid -- 7.1 Manufacturing process of phosphoric acid -- 7.1.1 Wet process -- 8. Characteristics of phosphogypsum -- 9. Management and handling of phosphogypsum -- 10. Manufacture of ammonium sulfate -- 11. Utilization of phosphogypsum -- 12. Gypsum waste as an additive in cement industry -- 12.1 Recover or manufacture sulfuric acid -- 12.2 Reclamation of alkali soils and saline-alkali soils and use as fertilizer in agriculture -- 12.3 Road making -- 13. Application of phosphogypsum in the areas of environment and material science -- 14. Different types of by-products of gypsum -- 14.1 Phosphogypsum -- 14.2 Titanogypsum -- 14.3 Citrogypsum -- 14.4 Fluoroanhydrite -- 14.5 Other synthetic gypsum -- 15. Gypsum as a source of calcium and sulfur for crops -- 16. Phosphogypsum and its radioactive constituents -- 17. Uranium recovery from phosphoric acid via hydro-metallurgy and solvent extraction -- Acknowledgments -- References -- Further reading -- 13 - Resource recovery from red mud -- 1. Introduction -- 2. Characteristics of red mud -- 3. Recovery of materials -- 3.1 Recovery of Al, Fe, and Na -- 3.2 Recovery of trace elements -- 3.3 Using recovered elements -- 4. Final considerations: Red mud and circular economy -- References -- 14 - Technologies for recovery of metals (including precious) from waste -- 1. Introduction -- 2. Relevance of metallophytes for extracting metals -- 3. Metallophytes for phytotechnologies -- 4. Metallomics: A novel tool for trace element resource mapping. , 5. Recovery of endangered metals from electronic waste (E-waste) or waste electrical and electronic equipment (WEEE) -- References -- Further reading -- 15 - Sustainable recovery of rare earth elements by recycling of E-waste for a circular economy: perspectives and r ... -- 1. Introduction -- 2. Promotion of REE recycling and the use of recycled metals by some governments and big companies -- 3. Potential e-waste types of equipment for REE recycling -- 4. Important REE recycling methods -- 4.1 Pyrometallurgical methods -- 4.2 Hydrometallurgical methods -- 4.2.1 Solvent extraction methods -- 4.2.2 Extraction of REEs and other metals using ionic liquids -- 4.2.3 Ion exchange methods -- 4.2.4 A protein-based process -- 4.2.5 Molecular recognition technology -- 4.2.6 Ultrasound extraction technology -- 4.3 Bioleaching and biosorption methods -- 4.4 Electrochemical recovery methods -- 4.5 Miscellaneous methods -- 5. Advantages of the recovery of REEs from e-waste -- 6. Current challenges in recycling -- 7. Future developments in the recycling of REEs -- 8. AI in recycling technologies -- 9. Application of different types of analytical techniques during recycling activities -- 10. Environmental effects of recycling activities-A global challenge -- 11. Sustainable approaches toward effective e-waste recycling -- 12. Conclusions -- Acknowledgments -- References -- 16 - Natural and surfactant-modified zeolite for the removal of pollutants (inorganic mainly) from natural waters a ... -- 1. Introduction -- 2. Structure, properties, and sources of natural zeolite -- 3. Applications of natural zeolite for environmental purposes -- 4. Modification of natural zeolite -- 5. Surfactant modification of natural zeolite -- 6. Applications of surfactant-modified zeolite for environmental purposes -- 6.1 Removal of inorganic anionic pollutants. , 6.2 Removal of inorganic cationic pollutants.

Additional Edition: Print version: Vara Prasad, Majeti Narasimha Environmental Materials and Waste San Diego : Elsevier,c2024 ISBN 9780443220692

Language: English

UID:

Format: 1 online resource (882 pages)

Edition: 2nd ed.

ISBN: 9780443220708

Note: Front Cover -- Environmental Materials and Waste -- Environmental Materials and Waste -- Copyright -- Contents -- Contributors -- Preface -- Acknowledgments -- 1 - Recovery of resources from biowaste for pollution prevention -- 1. Introduction -- 2. Biowaste management -- 3. Bioremediation of waste disposed land or existing land fills -- 4. Solid waste management in Indian perspective -- 5. Utilization of biowaste from bioremediation-The case of aquatic weeds -- 6. Conclusion -- References -- 2 - Food waste management in Thailand for sustainable development -- 1. Introduction -- 2. Food waste in Thailand -- 3. Appropriate food waste treatment guidelines -- 3.1 Biodiesel -- 3.2 Incineration -- 3.3 Pyrolysis and gasification -- 3.4 Value-added products and materials -- 3.5 Biogas, biohydrogen, and bioethanol -- 3.6 Microbial fuel cell -- 3.7 Composting and biofertilizer -- 3.8 Animal feed -- 4. Food waste management: A Thai perspective -- 4.1 Community engagement management planning -- 4.2 Food waste management in hospitality sector -- 4.3 Startup business model management -- 5. Conclusions -- Acknowledgments -- References -- Further reading -- 3 - Resources from plastic waste for pollution abatement and circular economy -- 1. Introduction -- 2. Plastic waste for pollution abatement and circular economy -- 3. Coprocessing of plastic waste in cement kilns -- 4. Cost of plastic waste to liquid RDF plant -- 5. Merits of plasma pyrolysis technology (PPT) -- 6. Mission starfish 2030: Restore our ocean and waters -- References -- Further reading -- 4 - Plastic waste in a circular economy -- 1. Introduction -- 2. Classification of plastics in the economy -- 3. Framework for plastic waste management in a circular economy -- 4. Plastic recycling and recovery processes: Opportunities, challenges, and trade-offs -- 4.1 Mechanical recycling process. , 4.2 Organic recycling -- 4.3 Quaternary recycling (energy recovery) -- 5. Concluding remarks -- References -- 5 - Integrated municipal solid waste management for energy recovery and pollution prevention -- 1. Introduction -- 2. Typical landfill gas composition -- 2.1 Learn about alternative options for managing organic waste -- 3. Collecting and treating landfill gas -- 3.1 Landfill gas energy project types -- 3.2 Electricity generation -- 3.3 Direct use of medium-BTU gas -- 3.4 Renewable natural gas -- Acknowledgment -- References -- Further reading -- 6 - Vinasse, a byproduct of the bioethanol industry-A valuable resource for sustainable agriculture and renewable e ... -- 1. Introduction -- 1.1 Biofuel generation and bioethanol production -- 2. Sugarcane vinasse generation -- 3. Characterization of vinasse -- 3.1 Organic and inorganic contents of vinasse -- 4. Application of vinasse -- 4.1 Vinasse as fertilizer -- 4.2 Vinasse as microbiological culture medium -- 4.3 Vinasse in animal feed -- 4.4 Potential of vinasse as a renewable energy matrix -- 4.5 Vinasse as a component of circular economy -- 5. Environmental concerns of vinasse management -- 5.1 Polluting potential of vinasse -- 5.2 Public policies and regulatory frameworks -- 6. Remarks -- References -- 7 - Biochar production from green waste: Remediation potential -- 1. Introduction -- 2. Biochar characterizations -- 3. Biochar composition -- 4. Pyrolysis temperature effect on biochar properties -- 5. Pyrolysis temperature effect on biochar yields -- 5.1 Pyrolysis temperature effect on biochar physicochemical properties -- 5.1.1 Biochar surface morphology -- 5.1.2 Biochar functional groups -- 5.1.3 Biochar cation exchange capacity -- 5.1.4 Biochar water-holding capacity -- 5.1.5 Biochar stability -- 5.1.6 Biochar pH -- 5.1.7 Biochar electrical conductivity -- 6. Biochar adsorption potentials. , 7. Conclusion -- References -- 8 - Biochar-based biocover to reduce landfill CH4 and H2S emissions -- 1. Introduction -- 2. Reduction strategies for landfill gas emissions -- 3. CH4 and H2S emission control by biochar-amended LSC -- 3.1 Promotion in CH4 oxidation of LSC by biochar -- 3.2 H2S removal by biochar as adsorbent -- 3.3 Simultaneous removal of CH4 and H2S by biochar-amended LSC -- 4. Conclusions -- References -- 9 - Biogas production from sewage sludge-Advances in thermal pretreatment -- 1. Introduction -- 2. Temperature-phased anaerobic digestion -- 3. Heat-based pretreatment techniques -- 3.1 Conventional thermal pretreatment -- 3.2 Microwave pretreatment -- 3.3 Thermal hydrolysis pretreatment -- 3.4 Thermal alkaline pretreatment -- 4. Effect of pretreatments and anaerobic digestion on removal of micropollutants -- 5. Conclusions and prospects -- References -- 10 - Fast technology for sludge utilization -- 1. Introduction -- 2. Materials and methods -- 2.1 Tested materials -- 2.2 SS treatment -- 2.3 Determination of Si status of tested materials -- 2.4 Germination test -- 2.5 Greenhouse test -- 2.6 Statistical analysis -- 3. Results and discussion -- 3.1 Material testing -- 3.2 Germination test -- 3.3 Greenhouse test -- 4. Conclusions -- Acknowledgment -- References -- 11 - Circular economy approach as management solution for asbestos waste -- 1. Introduction -- 2. World scenario of asbestos -- 2.1 Worldwide production and consumption -- 2.2 Utilization of asbestos and its waste -- 2.3 Substitutes of asbestos -- 3. Environmental and health impact of asbestos -- 3.1 Environmental impact -- 3.2 Health impact -- 4. Clean-up technologies -- 4.1 Phytoremediation -- 4.1.1 Plant and lichen colonization -- 4.2 Bioremediation -- 5. Case studies -- 5.1 India -- 6. Conclusion -- References -- Further reading. , 12 - Resource potential of natural and synthetic gypsum waste -- 1. Introduction -- 2. Natural gypsum applications and reuse -- 3. Synthetic gypsum -- 4. Flue gas desulfurization gypsum -- 5. Processing FGD gypsum -- 6. Phosphate mineral fertilizers P2O5 -- 7. Production of phosphoric acid -- 7.1 Manufacturing process of phosphoric acid -- 7.1.1 Wet process -- 8. Characteristics of phosphogypsum -- 9. Management and handling of phosphogypsum -- 10. Manufacture of ammonium sulfate -- 11. Utilization of phosphogypsum -- 12. Gypsum waste as an additive in cement industry -- 12.1 Recover or manufacture sulfuric acid -- 12.2 Reclamation of alkali soils and saline-alkali soils and use as fertilizer in agriculture -- 12.3 Road making -- 13. Application of phosphogypsum in the areas of environment and material science -- 14. Different types of by-products of gypsum -- 14.1 Phosphogypsum -- 14.2 Titanogypsum -- 14.3 Citrogypsum -- 14.4 Fluoroanhydrite -- 14.5 Other synthetic gypsum -- 15. Gypsum as a source of calcium and sulfur for crops -- 16. Phosphogypsum and its radioactive constituents -- 17. Uranium recovery from phosphoric acid via hydro-metallurgy and solvent extraction -- Acknowledgments -- References -- Further reading -- 13 - Resource recovery from red mud -- 1. Introduction -- 2. Characteristics of red mud -- 3. Recovery of materials -- 3.1 Recovery of Al, Fe, and Na -- 3.2 Recovery of trace elements -- 3.3 Using recovered elements -- 4. Final considerations: Red mud and circular economy -- References -- 14 - Technologies for recovery of metals (including precious) from waste -- 1. Introduction -- 2. Relevance of metallophytes for extracting metals -- 3. Metallophytes for phytotechnologies -- 4. Metallomics: A novel tool for trace element resource mapping. , 5. Recovery of endangered metals from electronic waste (E-waste) or waste electrical and electronic equipment (WEEE) -- References -- Further reading -- 15 - Sustainable recovery of rare earth elements by recycling of E-waste for a circular economy: perspectives and r ... -- 1. Introduction -- 2. Promotion of REE recycling and the use of recycled metals by some governments and big companies -- 3. Potential e-waste types of equipment for REE recycling -- 4. Important REE recycling methods -- 4.1 Pyrometallurgical methods -- 4.2 Hydrometallurgical methods -- 4.2.1 Solvent extraction methods -- 4.2.2 Extraction of REEs and other metals using ionic liquids -- 4.2.3 Ion exchange methods -- 4.2.4 A protein-based process -- 4.2.5 Molecular recognition technology -- 4.2.6 Ultrasound extraction technology -- 4.3 Bioleaching and biosorption methods -- 4.4 Electrochemical recovery methods -- 4.5 Miscellaneous methods -- 5. Advantages of the recovery of REEs from e-waste -- 6. Current challenges in recycling -- 7. Future developments in the recycling of REEs -- 8. AI in recycling technologies -- 9. Application of different types of analytical techniques during recycling activities -- 10. Environmental effects of recycling activities-A global challenge -- 11. Sustainable approaches toward effective e-waste recycling -- 12. Conclusions -- Acknowledgments -- References -- 16 - Natural and surfactant-modified zeolite for the removal of pollutants (inorganic mainly) from natural waters a ... -- 1. Introduction -- 2. Structure, properties, and sources of natural zeolite -- 3. Applications of natural zeolite for environmental purposes -- 4. Modification of natural zeolite -- 5. Surfactant modification of natural zeolite -- 6. Applications of surfactant-modified zeolite for environmental purposes -- 6.1 Removal of inorganic anionic pollutants. , 6.2 Removal of inorganic cationic pollutants.

Additional Edition: Print version: Vara Prasad, Majeti Narasimha Environmental Materials and Waste San Diego : Elsevier,c2024 ISBN 9780443220692

Language: English