Advances of Energy from Waste: Transformation Methods, Applications and Limitations Under Sustainability provides advanced, systematic information on the environmental transformation of waste and pollutants of various origins into useful products, contributing to the development of the local economy, and increasing the sustainability of the energy sector. In addition, remarkable competences in design, performance, efficiency, and implementation of diverse systems utilized for waste energy recovery are summarized and evaluated.
This book will also include recent advances in biomass-derived green catalysts for various catalytic applications are discussed in this book along with the challenges of controlled synthesis and the impact of morphological, physical, and chemical properties on their adsorption or desorption capability. Advances of Energy from Waste: Transformation Methods, Applications and Limitations Under Sustainability discuss waste management priorities, waste to energy, environmental pollution, remediation, health risks, circular economy, recycling, sustainability, technologies, and more.
1. Chapter 1 : Introduction to waste-to-energy advances - p. Page x 2. Chapter 2 : Types and factors of waste accumulation - p. Page 37 3. Chapter 3 : Accumulation, processing, and destruction of waste: environmental toxicities, levels, and assessment method - p. Page 71 4. Chapter 4 : Risks associated with waste accumulation and processing: existing experience, scientific approaches to assessment, examples - p. Page 110 5. Chapter 5 : Various genesis wastes and their life cycle: A step to sustainable circular economy - p. Page 141 6. Chapter 6 : Type of industries, waste options, and their potential - p. Page 171 7. Chapter 7 : Revolutionizing waste management: unleashing the power of artificial intelligence and machine learning - p. Page 216 8. Chapter 8 : The present and future of microbial fuel cells developed for sustainable and renewable energy production - p. Page 265 9. Chapter 9 : A simulation study of liquid fuel production from the plastic waste mixture by pyrolysis and distillation process - p. Page 305 10. Chapter 10 : Sustainable transformation of biomass into diverse high-value materials using biorefineries in the circular economy - p. Page 339 11. Chapter 11 : Critical factors and risks affecting municipal solid waste management strategies and waste-to-energy generation - p. Page 363 12. Chapter 12 : Possible roadmap for the circular economy using technologies of segregation and recycling of electronic and polymeric wastes - p. Page 400 13. Chapter 13 : Biological conversion into bioethanol and biodiesel from municipal waste and future prospective w.r.t to circular economy - p. Page 424 14. Chapter 14 : Industry 4.0−based solid waste management and future prospects in circular economy☆ - p. Page 448 15. Chapter 15 : Waste-to-energy transition: importance in circular bioeconomy and a tool to reduce greenhouse gas emission - p. Page 496 16. Chapter 16 : Plastic waste-to-fuel and sustainable development goals - p. Page 521 17. Chapter 17 : Plastic waste management techniques and WtE consideration in developing countries - p. Page 545 18. Chapter 18 : Solid waste management practices in Türkiye to achieve the UN sustainable development goals of waste to energy - p. Page 572 19. Chapter 19 : Waste accumulation in the environment: case studies of Karachi and Larkana (Pakistan) - p. Page 598 20. Chapter 20 : Factors affecting the municipal solid waste management: the case of Wolaita zone, Southern Ethiopia - p. Page 636 21. Chapter 21 : Case studies on the waste management in the Gorlickie county as an area of environmental pressure in south-eastern Poland - p. Page 680 22. Chapter 22 : An assessment of suitability for adopting waste-to-energy technology in developing countries of South Asia: a case study of Chittagong - p. Page 716 23. Chapter 23 : Comparison of approaches to agricultural waste management: an example of two Eurasian countries with positive development dynamics - p. Page 736 24. Chapter 24 : Energy recovery from municipal solid waste incineration: case study—Libya - p. Page 768 25. Chapter 25 : Waste-to-energy potential in developing countries: a case study of African cities: Lagos, Cairo, & Kinshasa - p. Page 807 26. Chapter 26 : Case study of atmospheric protection in thermal waste treatment - p. Page 856 27. Chapter 27 : Final remarks and perspectives for the future - p. Page 892 28. Author Index - p. Page 910 29. Subject Index - p. Page 910
Advances of Energy from Waste: Transformation Methods, Applications and Limitations Under Sustainability provides advanced, systematic information on the environmental transformation of waste and pollutants of various origins into useful products, contributing to the development of the local economy, and increasing the sustainability of the energy sector. In addition, remarkable competences in design, performance, efficiency, and implementation of diverse systems utilized for waste energy recovery are summarized and evaluated.
This book will also include recent advances in biomass-derived green catalysts for various catalytic applications are discussed in this book along with the challenges of controlled synthesis and the impact of morphological, physical, and chemical properties on their adsorption or desorption capability. Advances of Energy from Waste: Transformation Methods, Applications and Limitations Under Sustainability discuss waste management priorities, waste to energy, environmental pollution, remediation, health risks, circular economy, recycling, sustainability, technologies, and more.
1. Chapter 1 : Introduction to waste-to-energy advances - p. Page x 2. Chapter 2 : Types and factors of waste accumulation - p. Page 37 3. Chapter 3 : Accumulation, processing, and destruction of waste: environmental toxicities, levels, and assessment method - p. Page 71 4. Chapter 4 : Risks associated with waste accumulation and processing: existing experience, scientific approaches to assessment, examples - p. Page 110 5. Chapter 5 : Various genesis wastes and their life cycle: A step to sustainable circular economy - p. Page 141 6. Chapter 6 : Type of industries, waste options, and their potential - p. Page 171 7. Chapter 7 : Revolutionizing waste management: unleashing the power of artificial intelligence and machine learning - p. Page 216 8. Chapter 8 : The present and future of microbial fuel cells developed for sustainable and renewable energy production - p. Page 265 9. Chapter 9 : A simulation study of liquid fuel production from the plastic waste mixture by pyrolysis and distillation process - p. Page 305 10. Chapter 10 : Sustainable transformation of biomass into diverse high-value materials using biorefineries in the circular economy - p. Page 339 11. Chapter 11 : Critical factors and risks affecting municipal solid waste management strategies and waste-to-energy generation - p. Page 363 12. Chapter 12 : Possible roadmap for the circular economy using technologies of segregation and recycling of electronic and polymeric wastes - p. Page 400 13. Chapter 13 : Biological conversion into bioethanol and biodiesel from municipal waste and future prospective w.r.t to circular economy - p. Page 424 14. Chapter 14 : Industry 4.0−based solid waste management and future prospects in circular economy☆ - p. Page 448 15. Chapter 15 : Waste-to-energy transition: importance in circular bioeconomy and a tool to reduce greenhouse gas emission - p. Page 496 16. Chapter 16 : Plastic waste-to-fuel and sustainable development goals - p. Page 521 17. Chapter 17 : Plastic waste management techniques and WtE consideration in developing countries - p. Page 545 18. Chapter 18 : Solid waste management practices in Türkiye to achieve the UN sustainable development goals of waste to energy - p. Page 572 19. Chapter 19 : Waste accumulation in the environment: case studies of Karachi and Larkana (Pakistan) - p. Page 598 20. Chapter 20 : Factors affecting the municipal solid waste management: the case of Wolaita zone, Southern Ethiopia - p. Page 636 21. Chapter 21 : Case studies on the waste management in the Gorlickie county as an area of environmental pressure in south-eastern Poland - p. Page 680 22. Chapter 22 : An assessment of suitability for adopting waste-to-energy technology in developing countries of South Asia: a case study of Chittagong - p. Page 716 23. Chapter 23 : Comparison of approaches to agricultural waste management: an example of two Eurasian countries with positive development dynamics - p. Page 736 24. Chapter 24 : Energy recovery from municipal solid waste incineration: case study—Libya - p. Page 768 25. Chapter 25 : Waste-to-energy potential in developing countries: a case study of African cities: Lagos, Cairo, & Kinshasa - p. Page 807 26. Chapter 26 : Case study of atmospheric protection in thermal waste treatment - p. Page 856 27. Chapter 27 : Final remarks and perspectives for the future - p. Page 892 28. Author Index - p. Page 910 29. Subject Index - p. Page 910
