Pollution Control and Resource Recovery: Sewage Sludge discusses several traditional and new environmentally friendly technologies for sewage sludge treatment and disposal. In addition, the book covers a range of new initiatives that are underway to promote and accelerate the development of related sciences and techniques.
The book's authors builds a framework for developing various sustainable technologies for sewage sludge treatment and disposal, including advanced dewatering through chemical conditioning, solidification/stabilization, reuse for the development of construction and building materials, anaerobic bioenergy recovery, sanitary landfill, and odor control.
1. Cover image - p. i 2. Title page - p. ii 3. Table of Contents - p. iii 4. Copyright - p. iv 5. List of Contributors - p. ix 6. About the Authors - p. xi 7. Preface - p. xiii 8. Summary - p. xv 9. Abbreviations - p. xvii 10. Chapter One. Sewage Sludge Generation and Characteristics - p. 1 11. Chapter Two. Enhanced Sewage Sludge Dewaterability by Chemical Conditioning - p. 13 12. 2.1. Enhanced Dewatering Characteristics With Fenton Pretreatment - p. 13 13. 2.2. Enhanced Dewaterability Using Fe(II)-Activated Persulfate Oxidation - p. 24 14. 2.3. Novel Insights Into Enhanced Dewaterability by Fe(II)-Activated Persulfate Oxidation - p. 33 15. 2.4. Synergetic Pretreatment by Fe(II)-Activated Persulfate Oxidation Under Mild Temperature - p. 45 16. 2.5. Combination of Electrolysis and Fe(II)-Activated Persulfate Oxidation for Dewaterability - p. 56 17. 2.6. Hydrothermal Pretreatment of Dewatered Sludge for Dewaterability - p. 72 18. 2.7. Filtration Improvement of Zinc Sludge by Using Unconventional Alkalization Sequence - p. 78 19. 2.8. Enhanced Dewatering of Waste-Activated Sludge by Composite Hydrolysis Enzymes - p. 84 20. 2.9. Practical Significance for Mechanical Dewatering Processes - p. 93 21. Chapter Three. Sewage Sludge Solidification/Stabilization and Drying/Incineration Process - p. 101 22. Chapter Four. Making of Sewage Sludge-Derived Controlled Low-Strength Materials (CLSMs) - p. 161 23. Chapter Five. Harvest of Bioenergy From Sewage Sludge by Anaerobic Digestion - p. 181 24. 5.1. Overview on Current Advances in Sludge Pretreatment to Improve Anaerobic Biodegradability - p. 181 25. 5.2. Anaerobic Digestion Technique and Combined ElectricalAlkali Pretreatment to Increase the Anaerobic Hydrolysis Rate of Sludge - p. 201 26. 5.3. Influence of Zero-Valent Scrap Iron (ZVSI) Supply on Methane Production - p. 219 27. 5.4. Mesophilic Anaerobic Codigestion of Waste-Activated Sludge (WAS) and Egeria densa: Performance Assessment and Kinetic Analysis - p. 234 28. 5.5. Application of Aged Refuse to Boost Bio-Hydrogen Production From Food Waste and Sewage Sludge - p. 250 29. 5.6. Toxic Effect of Antibiotic Cefalexin on Methane Production From Sewage Sludge - p. 261 30. Chapter Six. Pollution Control and Recycling of Sludge in Sanitary Landfill - p. 275 31. References - p. 353 32. Index - p. 359
Pollution Control and Resource Recovery: Sewage Sludge discusses several traditional and new environmentally friendly technologies for sewage sludge treatment and disposal. In addition, the book covers a range of new initiatives that are underway to promote and accelerate the development of related sciences and techniques.
The book's authors builds a framework for developing various sustainable technologies for sewage sludge treatment and disposal, including advanced dewatering through chemical conditioning, solidification/stabilization, reuse for the development of construction and building materials, anaerobic bioenergy recovery, sanitary landfill, and odor control.
1. Cover image - p. i 2. Title page - p. ii 3. Table of Contents - p. iii 4. Copyright - p. iv 5. List of Contributors - p. ix 6. About the Authors - p. xi 7. Preface - p. xiii 8. Summary - p. xv 9. Abbreviations - p. xvii 10. Chapter One. Sewage Sludge Generation and Characteristics - p. 1 11. Chapter Two. Enhanced Sewage Sludge Dewaterability by Chemical Conditioning - p. 13 12. 2.1. Enhanced Dewatering Characteristics With Fenton Pretreatment - p. 13 13. 2.2. Enhanced Dewaterability Using Fe(II)-Activated Persulfate Oxidation - p. 24 14. 2.3. Novel Insights Into Enhanced Dewaterability by Fe(II)-Activated Persulfate Oxidation - p. 33 15. 2.4. Synergetic Pretreatment by Fe(II)-Activated Persulfate Oxidation Under Mild Temperature - p. 45 16. 2.5. Combination of Electrolysis and Fe(II)-Activated Persulfate Oxidation for Dewaterability - p. 56 17. 2.6. Hydrothermal Pretreatment of Dewatered Sludge for Dewaterability - p. 72 18. 2.7. Filtration Improvement of Zinc Sludge by Using Unconventional Alkalization Sequence - p. 78 19. 2.8. Enhanced Dewatering of Waste-Activated Sludge by Composite Hydrolysis Enzymes - p. 84 20. 2.9. Practical Significance for Mechanical Dewatering Processes - p. 93 21. Chapter Three. Sewage Sludge Solidification/Stabilization and Drying/Incineration Process - p. 101 22. Chapter Four. Making of Sewage Sludge-Derived Controlled Low-Strength Materials (CLSMs) - p. 161 23. Chapter Five. Harvest of Bioenergy From Sewage Sludge by Anaerobic Digestion - p. 181 24. 5.1. Overview on Current Advances in Sludge Pretreatment to Improve Anaerobic Biodegradability - p. 181 25. 5.2. Anaerobic Digestion Technique and Combined ElectricalAlkali Pretreatment to Increase the Anaerobic Hydrolysis Rate of Sludge - p. 201 26. 5.3. Influence of Zero-Valent Scrap Iron (ZVSI) Supply on Methane Production - p. 219 27. 5.4. Mesophilic Anaerobic Codigestion of Waste-Activated Sludge (WAS) and Egeria densa: Performance Assessment and Kinetic Analysis - p. 234 28. 5.5. Application of Aged Refuse to Boost Bio-Hydrogen Production From Food Waste and Sewage Sludge - p. 250 29. 5.6. Toxic Effect of Antibiotic Cefalexin on Methane Production From Sewage Sludge - p. 261 30. Chapter Six. Pollution Control and Recycling of Sludge in Sanitary Landfill - p. 275 31. References - p. 353 32. Index - p. 359
