Transformation of Liquid Waste to Energy: Methods, Challenges and Opportunities brings together the latest developments, technologies, and approaches for the transformation of organic waste into energy, enabling the reader to tackle head-on the challenges of valorizing waste as bioenergy. The book focuses on liquid waste, notably covering wastewater treatment and energy recovery, the production of biofuels, and microbial fuel cells, as well as high-rate anaerobic processes and utilization of municipal/industrial wastewater for energy recovery. Each chapter presents the latest developments in transforming different types of liquid waste into bioenergy and discusses conventional methods alongside novel and emerging technologies.This new volume in the Woodhead Series in Bioenergy is of interest to all those with an interest in waste-to-energy, bioenergy, waste management, chemical engineering, and sustainability, including researchers, advanced students, faculty, engineers, scientists, R&D, industrial practitioners, and policymakers.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. i 4. Table of Contents - p. iii 5. Woodhead Series in Bioenergy - p. ii 6. Copyright - p. iv 7. Contributors - p. xv 8. About the editors - p. xix 9. Foreword - p. xxi 10. Chapter 1. Recent developments of high-rate anaerobic processes for wastewater treatment and energy recovery (biomethane and biohydrogen) - p. 1 11. Chapter 2. Utilization of municipal wastewater for energy recovery - p. 21 12. Chapter 3. Microbial fuel cells for energy generation: Current progress and future perspectives - p. 45 13. Chapter 4. Recent advances in algal cultivations as feedstock for renewable energy production toward a circular economy - p. 63 14. Chapter 5. Biodiesel production from waste cooking oil - p. 85 15. Chapter 6. Wastewater treatment and sustainable energy production through microalgae: An integrated approach - p. 113 16. Chapter 7. Marine microbes: A potential source for the conversion of agricultural waste into ethanol through fermentation - p. 131 17. Chapter 8. Development of microbial fuel cells for green energy production and environmental applications: Challenges and future outlook - p. 149 18. Chapter 9. From farm to bytes: Sustainable strategies to manage new age wastes - p. 167 19. Chapter 10. A review of advancement in artificial neural network–constituted cavitation-assisted strategies for the synthesis of biodiesel and the significance of different saturated and unsaturated fatty acids in the final product - p. 207 20. Chapter 11. Strategical tactics on sewage sludge handling: Sustainable treatment practices, characterization, energy recovery, and reuse applications - p. 227 21. Chapter 12. Beyond recycling: Exploring the benefits and challenges of source reduction and green manufacturing for sustainable production - p. 249 22. Chapter 13. Environmental impact assessment of liquid waste-to-energy technologies and their future perspectives - p. 269 23. Chapter 14. Dark fermentation for biohydrogen and bioethanol production - p. 291 24. Index - p. 319
Transformation of Liquid Waste to Energy: Methods, Challenges and Opportunities brings together the latest developments, technologies, and approaches for the transformation of organic waste into energy, enabling the reader to tackle head-on the challenges of valorizing waste as bioenergy. The book focuses on liquid waste, notably covering wastewater treatment and energy recovery, the production of biofuels, and microbial fuel cells, as well as high-rate anaerobic processes and utilization of municipal/industrial wastewater for energy recovery. Each chapter presents the latest developments in transforming different types of liquid waste into bioenergy and discusses conventional methods alongside novel and emerging technologies.This new volume in the Woodhead Series in Bioenergy is of interest to all those with an interest in waste-to-energy, bioenergy, waste management, chemical engineering, and sustainability, including researchers, advanced students, faculty, engineers, scientists, R&D, industrial practitioners, and policymakers.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. i 4. Table of Contents - p. iii 5. Woodhead Series in Bioenergy - p. ii 6. Copyright - p. iv 7. Contributors - p. xv 8. About the editors - p. xix 9. Foreword - p. xxi 10. Chapter 1. Recent developments of high-rate anaerobic processes for wastewater treatment and energy recovery (biomethane and biohydrogen) - p. 1 11. Chapter 2. Utilization of municipal wastewater for energy recovery - p. 21 12. Chapter 3. Microbial fuel cells for energy generation: Current progress and future perspectives - p. 45 13. Chapter 4. Recent advances in algal cultivations as feedstock for renewable energy production toward a circular economy - p. 63 14. Chapter 5. Biodiesel production from waste cooking oil - p. 85 15. Chapter 6. Wastewater treatment and sustainable energy production through microalgae: An integrated approach - p. 113 16. Chapter 7. Marine microbes: A potential source for the conversion of agricultural waste into ethanol through fermentation - p. 131 17. Chapter 8. Development of microbial fuel cells for green energy production and environmental applications: Challenges and future outlook - p. 149 18. Chapter 9. From farm to bytes: Sustainable strategies to manage new age wastes - p. 167 19. Chapter 10. A review of advancement in artificial neural network–constituted cavitation-assisted strategies for the synthesis of biodiesel and the significance of different saturated and unsaturated fatty acids in the final product - p. 207 20. Chapter 11. Strategical tactics on sewage sludge handling: Sustainable treatment practices, characterization, energy recovery, and reuse applications - p. 227 21. Chapter 12. Beyond recycling: Exploring the benefits and challenges of source reduction and green manufacturing for sustainable production - p. 249 22. Chapter 13. Environmental impact assessment of liquid waste-to-energy technologies and their future perspectives - p. 269 23. Chapter 14. Dark fermentation for biohydrogen and bioethanol production - p. 291 24. Index - p. 319