Additional Information
Book Details
Abstract
Wastewater and Biosolids Management covers a wide range of current, new and emerging topics in wastewater and biosolids. The book addresses the theoretical and practical aspect of the reuse and looks to advance our knowledge on wastewater reuse and its application in agricultural production.
The book aims to present existing modern information about wastewater reuse management based on earlier literature on the one hand and recent research developments, many of which have not so far been implemented into actual practice on the other. It combines the practical and theoretical knowledge about ‘wastewater and biosolids management’ and in this sense it is useful for researchers, students, academics as well as for professionals.
Table of Contents
Section Title | Page | Action | Price |
---|---|---|---|
Cover | Cover | ||
Contents | v | ||
Preface | xi | ||
Chapter 1: Wastewater management in ancient times | 1 | ||
1.1 INTRODUCTION | 1 | ||
1.2 MIDDLE EAST AND INDIA | 3 | ||
1.3 CHINA | 5 | ||
1.4 AFRICA | 5 | ||
1.5 MEDITERRANEAN AREA | 5 | ||
1.6 CONCLUSIONS | 9 | ||
1.7 REFERENCES | 9 | ||
Chapter 2: Wastewater management: introduction to new technologies | 13 | ||
2.1 CLIMATE CHANGE EFFECTS ON WASTEWATER TREATMENT | 14 | ||
2.2 INNOVATIVE NITROGEN REMOVAL | 15 | ||
2.3 PHOSPHOROUS RECOVERY | 18 | ||
2.4 THE MEMBRANE BIOREACTOR PROCESS | 20 | ||
2.5 ADVANCED OXIDATION PROCESSES (AOPs) | 21 | ||
2.6 SLUDGE TREATMENT AND DISPOSAL | 22 | ||
2.7 REFERENCES | 24 | ||
Chapter 3: Nonel biological processes for nutrient removal and energy recovery from wastewater | 27 | ||
3.1 INTRODUCTION | 27 | ||
3.2 BIOLOGICAL NUTRIENT REMOVAL PROCESSES | 28 | ||
3.3 ANAEROBIC TECHNOLOGIES | 36 | ||
3.4 CONCLUSIONS | 38 | ||
3.5 REFERENCES | 39 | ||
Chapter 4: Managing reuse of treated wastewater and bio solids for improved water use, energy generation and environmental control | 43 | ||
4.1 INTRODUCTION | 43 | ||
4.2 INFORMATION SYSTEM | 44 | ||
4.3 REUSE OPTIONS | 45 | ||
4.4 BIOGAS PRODUCTION | 46 | ||
4.5 THE MBR | 46 | ||
4.6 THE MAIN COMPONENTS OF BIOGAS PRODUCTION | 48 | ||
4.7 SUMMARY AND CONCLUSIONS | 48 | ||
4.7.1 Unit conversion | 48 | ||
4.8 REFERENCES | 49 | ||
Chapter 5: Removal of pharmaceuticals and personal care products in constructed wetland systems for wastewater treatment and management | 51 | ||
5.1 INTRODUCTION | 51 | ||
5.2 DESIGN AND TYPES OF CONSTRUCTED WETLANDS | 52 | ||
5.3 REMOVAL MECHANISMS OF PPCPs IN CWs | 52 | ||
5.4 REMOVAL EFFICIENCIES OF PPCPs IN CONSTRUCTED WETLANDS | 55 | ||
5.4.1 Design and operational parameters of CWs on PPCP removal | 58 | ||
5.5 FUTURE GAPS AND RECOMMENDATIONS | 59 | ||
5.6 ACKNOWLEDGEMENTS | 60 | ||
5.7 REFERENCES | 60 | ||
Chapter 6: Heavy metal interactions under the effect of the wastewater and sludge reuse in agriculture | 65 | ||
6.1 THE NEED FOR THE STUDY OF ELEMENTAL INTERACTIONS UNDER THE WASTEWATER AND BIOSOLID REUSE IN AGRICULTURE | 65 | ||
6.2 THE WASTEWATER REUSE | 66 | ||
6.3 ELEMENTAL INTERACTIONS IN SOIL-PLANT SYSTEM | 66 | ||
6.3.1 Factors affecting the interactions | 68 | ||
6.3.2 The study of the elemental Interactions under the treated municipal wastewater | 70 | ||
6.3.3 Elemental Interactions occurring in soil and in plants under wastewater | 70 | ||
6.3.3.1 Occurrence of interactions in soil | 70 | ||
6.3.3.2 Occurrence of interaction in plants | 71 | ||
6.3.4 Quantification of elemental contribution by the elemental interactions | 72 | ||
6.3.5 Elemental interactions explaining the positive relation of heavy metals to plant growth | 73 | ||
6.4 CONCLUSIONS | 74 | ||
6.5 REFERENCES | 74 | ||
Chapter 7: Microplastics and synthetic fibers in treated wastewater and sludge | 77 | ||
7.1 MICROPLASTICS AND SYNTHETIC FIBERS IN THE ENVIRONMENT | 77 | ||
7.2 DEFINITION OF MICROPLASTICS AND SYNTHETIC FIBERS | 78 | ||
7.3 WWTP | 78 | ||
7.3.1 Sewer systems | 79 | ||
7.3.2 WWTP pretreatment | 79 | ||
7.3.3 WWTP settling tanks | 80 | ||
7.3.4 Treated wastewater | 80 | ||
7.3.5 Sludge | 80 | ||
7.4 IMPLICATIONS | 81 | ||
7.5 CASE STUDIES | 81 | ||
7.6 EFFECTIVE CONTROL AND TREATMENT SCHEMES | 84 | ||
7.7 WWTPs AS A PRIMARY SOURCE FOR BEACHED MICROPLASTICS | 84 | ||
7.8 CONCLUSIONS | 85 | ||
7.9 REFERENCES | 86 | ||
Chapter 8: Wastewater reuse: uptake of contaminants of emerging concern by crops | 89 | ||
8.1 INTRODUCTION | 89 | ||
8.2 KEY PHYSICAL-CHEMICAL PROPERTIES OF ORGANIC CONTAMINANTS AFFECTING TO THE UPTAKE | 90 | ||
8.3 FACTORS AFFECTING TO BIOAVAILABILITY-BIOACCESIBILITY OF CONTAMINANTS | 91 | ||
8.3.1 Water quality | 91 | ||
8.3.2 Soil properties | 91 | ||
8.3.3 Climate | 92 | ||
8.3.4 Irrigation technology | 92 | ||
8.4 FATE ORGANIC CONTAMINANTS IN CROPS | 93 | ||
8.4.1 Uptake | 93 | ||
8.4.2 Translocation | 94 | ||
8.4.3 Metabolization | 98 | ||
8.4.4 Accumulation | 98 | ||
8.5 HUMAN HEALTH & RISK IMPLICATIONS | 99 | ||
8.6 SOIL AMENDING STRATEGIES | 100 | ||
8.7 GENERAL CONCLUSIONS AND RESEARCH NEEDS | 101 | ||
8.8 ACKNOWLEDGMENTS | 101 | ||
8.9 REFERENCES | 102 | ||
Chapter 9: Bio solids composting and soil applications | 107 | ||
9.1 INTRODUCTION | 107 | ||
9.2 BIOSOLIDS REGULATION | 107 | ||
9.3 CHARACTERISTICS OF BIOSOLIDS | 109 | ||
9.4 APPLICATIONS OF BIOSOLIDS | 111 | ||
9.5 COMPOSTING | 114 | ||
9.6 BIOSOLIDS IMPACT ASSESSMENT | 116 | ||
9.7 CONCLUSIONS | 117 | ||
9.8 REFERENCES | 117 | ||
Chapter 10: Anaerobic digestion and energy recovery from wastewater sludge | 121 | ||
10.1 PRODUCTION AND CHARACTERISTICS OF WASTEWATER SLUDGE | 121 | ||
10.1.1 Primary sludge | 122 | ||
10.1.2 Secondary (biological) sludge | 122 | ||
10.1.3 Treatment and disposal of sludge | 123 | ||
10.2 ANAEROBIC DIGESTION OF WASTEWATER SLUDGE | 123 | ||
10.3 MULTI STAGE AND TEMPERATURE PHASED ANAEROBIC PROCESS | 124 | ||
10.4 PRE-TREATMENT OF SLUDGE FOR ENHANCED ANAEROBIC DIGESTION | 125 | ||
10.5 ANAEROBIC DIGESTION OF SLUDGE AND OTHER SUBSTRATES (CO-DIGESTION) | 125 | ||
10.6 NOVEL SHORT-CUT TREATMENT OF SLUDGE REJECT WATER FOR NUTRIENT AND CARBON MANAGEMENT | 126 | ||
10.7 REFERENCES | 127 | ||
Chapter 11: Advanced oxidation processes for wastewater treatment | 131 | ||
11.1 INTRODUCTION | 131 | ||
11.2 THE ROLE OF THE WATER MATRIX | 132 | ||
11.3 ENHANCEMENT OF PROCESS PERFORMANCE | 134 | ||
11.3.1 Coupling of AOPs | 134 | ||
11.3.2 How can selectivity be improved? | 137 | ||
11.3.3 New or improved materials | 138 | ||
11.3.3.1 Heterogeneous semiconductor photocatalysis | 138 | ||
11.3.3.2 Anodic oxidation | 139 | ||
11.4 PERSPECTIVES AND RECOMMENDATIONS | 141 | ||
11.5 REFERENCES | 141 | ||
Chapter 12: Existence of organic micropollutants in the environment due to wastewater reuse and biosolids application | 145 | ||
12.1 INTRODUCTION | 145 | ||
12.2 OCCURRENCE OF ORGANIC MICROPOLLUTANTS IN TREATED WASTEWATER AND BIOSOLIDS | 145 | ||
12.3 FATE OF ORGANIC MICROPOLLUTANTS DURING WASTEWATER REUSE AND BIOSOLIDS APPLICATION | 148 | ||
12.4 ENVIRONMENTAL THREAT FOR THE AQUATIC AND TERRESTRIAL ENVIRONMENT DUE TO THE OCCURRENCE OF ORGANIC MICROPOLLUTANTS | 151 | ||
12.5 REGULATORY FRAMEWORK ON THE OCCURRENCE OF ORGANIC MICROPOLLUTANTS IN TREATED WASTEWATER AND BIOSOLIDS | 152 | ||
12.6 REFERENCES | 153 | ||
Index | 159 |