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Alternative Water Management and Self-Sufficient Water Supplies

Alternative Water Management and Self-Sufficient Water Supplies

Martin Rygaard | Hans-Jorgen Albrechtsen | Philip J. Binning

(2009)

Additional Information

Book Details

Abstract

This book is based on a screening of 113 worldwide experiences in alternative urban water management. A range of alternative water management strategies have been reviewed and 15 cases from around the world were studied in detail. These are presented as examples of possible water management strategies that have reduced  the cities’ dependency on water imports. The strategies include implementation of potable and non-potable wastewater reuse, rainwater collection and desalination. 
Alternative Water Management and Self-Sufficient Water Supplies provides inspiration for water planners in cities with restrained water resources by highlighting actual technical opportunities and challenges. It represents a unique collection of state-of-the-art water management practices and the opportunities and challenges presented are from real-life case studies. The book is primarily aimed at urban water management professionals working across different technical and management disciplines. These include water supply engineers and environmental planners that can use it for professional reference. It will also be a useful introductory text for under-graduate level courses on water supply.

Table of Contents

Section Title Page Action Price
Half title page 1
Title page 3
Copyright page 4
Table of contents 5
Preface 9
Acknowledgements 11
Chapter 1: Introduction 13
1.1 OBJECTIVES 15
1.2 STRUCTURE OF THE BOOK 15
REFERENCE 16
Chapter 2: Challenges for traditional water supplies: Copenhagen as an example 17
REFERENCES 19
Chapter 3: Selection of cases 21
3.1 METHOD 21
3.2 SCREENING AND SELECTED CASES 21
Chapter 4: Geographical trends 23
4.1 WATER RECLAMATION 23
4.2 RAINWATER COLLECTION 24
4.3 DESALINATION 24
REFERENCES 25
Chapter 5: The cases 27
5.1 CASE SUMMARY 27
5.1.1 Concepts 27
5.2 HIGHLIGHTS OF OTHER EXAMPLES 29
Case 1: Mandatory rainwater collection in Stenløse, Denmark 31
Location 31
Projects 31
Timescale 31
Driving forces 32
Water consumption 32
Factors affecting water consumption 32
Water quality 32
Costs 32
Cost coverage 32
Political environment 32
Community involvement 33
Consumer acceptance 33
Techniques 33
Risks 33
Environmental conditions 33
Future goals 33
Recommended Reading 33
Evaluation 33
Conclusion 34
References 34
Case 2: The sustainable urban district of Hammarby Sjöstad, Sweden 35
Location 35
Projects 35
Timescale 35
Driving forces 35
Water consumption 36
Factors affecting water consumption 36
Water quality 36
Costs 36
Cost coverage 37
Community involvement 37
Risks and environmental conditions 37
Future goals 37
Recommended Reading 37
Evaluation 37
Conclusion 37
References 37
Case 3: Secondary Water supply in the Millennium Dome, London, UK 39
Location 39
Projects 39
Timescale 40
Driving forces 40
Water quality 40
Investment 40
Production costs 40
Cost coverage 40
Community involvement 40
Consumer acceptance 41
Techniques 41
Risks 41
Environmental conditions 41
Future goals 42
Recommended reading 42
Evaluation 42
Conclusion 42
References 42
Case 4: Water recycling through groundwater in Wulpen, Belgium 43
Location 43
Projects 43
Timescale 44
Driving forces 44
Water consumption 44
Water quality 44
Costs 45
Political environment 45
Consumer acceptance 45
Techniques 45
Risks 45
Environmental conditions 45
Future goals 45
Recommended reading 45
Evaluation 45
Conclusion 46
References 46
Case 5: Wastewater reclamation in Blanes, Costa Brava, Spain 49
Location 49
Projects 49
Timescale 50
Driving forces 50
Water consumption 51
Water quality 51
Costs 51
Cost coverage 51
Political environment 51
Community involvement 51
Consumer acceptance 52
Techniques 52
Risks 52
Environmental conditions 52
Future goals 53
Recommended reading 53
Evaluation 53
Conclusion 53
References 54
Case 6: Bank infiltration and artificial groundwater recharge in Berlin, Germany 55
Location 55
Projects 55
Timescale 56
Driving forces 56
Water consumption 56
Water quality 56
Costs 57
Cost coverage 57
Political environment 57
Community involvement 57
Consumer acceptance 57
Techniques 57
Risks 57
Environmental conditions 57
Future goals 57
Recommended reading 58
Evaluation 58
Conclusion 59
References 59
Case 7: Integrated rainwater use in Berlin, Germany 61
Location 61
Projects 61
Timescale 62
Driving forces 62
Water quality 62
Costs 62
Cost coverage 62
Political environment 62
Techniques 62
Environmental conditions 62
Recommended reading 62
Evaluation 62
Conclusion 63
References 63
Case 8: Reclamation of wastewater in Orange County, California 65
Location 65
Projects 65
Timescale 66
Driving forces 66
Water consumption 66
Factors affecting water consumption 67
Water quality 67
Costs 67
Cost coverage 67
Political environment 67
Community involvement 67
Consumer acceptance 67
Techniques 67
Risks 67
Environmental conditions 68
Future goals 68
Recommended reading 68
Evaluation 69
Conclusion 69
References 69
Case 9: Wastewater reuse via membrane-bioreactor in Rio Rancho, New Mexico 71
Location 71
Projects 71
Timescale 72
Driving forces 72
Water consumption 72
Factors affecting water consumption 72
Water quality 72
Costs 72
Political environment 72
Techniques 72
Environmental conditions 72
Recommended reading 72
Evaluation 73
Conclusion 73
References 73
Case 10: Direct reuse in Windhoek, Namibia 75
Location 75
Projects 75
Timescale 76
Driving forces 76
Water consumption 76
Factors affecting water consumption 76
Water quality 76
Costs 77
Cost coverage 77
Political environment 77
Community involvement 77
Consumer acceptance 78
Techniques 78
Risks 78
Environmental conditions 78
Future goals 78
Recommended reading 78
Evaluation 78
Conclusion 79
References 79
Case 11: Water management in Singapore 81
Location 81
Projects 81
Timescale 82
Driving forces 82
Water consumption 82
Factors affecting water consumption 83
Water quality 83
Costs 83
Community involvement 83
Consumer acceptance 84
Techniques 84
Risks 84
Environmental conditions 85
Future goals 85
Recommended reading 85
Evaluation 85
Conclusion 85
References 86
Case 12: Mandatory Rainwater Collection in Seoul, South Korea 87
Location 87
Projects 87
Timescale 88
Driving forces 88
Water consumption 88
Costs 88
Cost coverage 88
Community involvement 88
Techniques 88
Risks 88
Environmental conditions 88
Future goals 88
Recommended reading 89
Evaluation 89
Conclusion 89
References 89
Case 13: Local water reuse in Japan 91
Location 91
Projects 91
Timescale 92
Driving forces 92
Water consumption 93
Water quality 93
Costs 93
Cost coverage 93
Political environment 93
Community involvement 93
Consumer acceptance 94
Techniques 94
Risks 94
Environmental conditions 94
Recommended reading 94
Evaluation 94
Conclusion 94
References 95
Case 14: Desalination in Perth, Western Australia 97
Location 97
Projects 97
Timescale 97
Driving forces 97
Water consumption 98
Factors affecting water consumption 98
Water quality 98
Costs 99
Cost coverage 99
Political environment 99
Community involvement 100
Consumer acceptance 100
Techniques 100
Risks 100
Environmental conditions 101
Future goals 101
Recommended Reading 101
Evaluation 101
Conclusion 101
References 102
Case 15: Gold Coast water future, Queensland, Australia 103
Location 103
Projects 103
Timescale 105
Driving forces 105
Water consumption 105
Factors affecting water consumption 105
Water quality 105
Costs 106
Cost coverage 106
Political environment 106
Community involvement 106
Consumer acceptance 106
Techniques 106
Risks 107
Environmental conditions 107
Future goals 107
Recommended reading 107
Evaluation 108
Conclusion 108
References 108
Chapter 6: Alternative water resources: overview and discussion of cases 111
6.1 WATER CONSUMPTION AND WATER SAVINGS 112
6.1.1 Water consumption 112
6.1.2 Household consumption 112
6.2 RECLAIMING WASTEWATER 113
6.2.1 Applications of reclamation 113
6.2.2 Technology and costs 114
6.2.3 Summary and relevance 116
6.3 DESALINATION 116
6.3.1 Applications 117
6.3.2 Technology and costs 117
6.3.3 Summary and relevance 118
6.4 RAINWATER HARVESTING 118
6.4.1 Application 119
6.4.2 Technology and costs 119
6.4.3 Summary and relevance 120
6.5 SUMMARY OF RESOURCE ALTERNATIVES 120
REFERENCES 122
Chapter 7: Water policy and planning 123
7.1 DRIVING FORCES 123
7.2 INTEGRATED WATER MANAGEMENT 123
7.2.1 Community involvement 124
7.2.2 Public debate – the case in Toowoomba, Australia 124
7.2.3 Handling public debate 124
7.3 PERCEPTION OF WATER MANAGEMENT AND WATER QUALITY 126
7.3.1 Bottled water 126
REFERENCES 126
Chapter 8: Risks and management of residuals (concentrates) and brines 127
8.1 RISKS AND WATER QUALITY 127
8.1.1 Reclamation and desalination for drinking water use 127
8.1.2 Rainwater 128
8.2 DISCHARGE OF CONCENTRATES 128
REFERENCES 129
Chapter 9: Concluding remarks 131
9.1 URBAN WATER SELF-SUFFICIENCY 131
9.2 DRIVING FORCES 131
9.3 WATER CONSUMPTION AND WATER SAVINGS 131
9.4 RECLAMATION OF WASTEWATER 132
9.5 SECONDARY WATER SUPPLY BASED ON REUSED WATER, AND RAINWATER 132
9.6 DESALINATION 133
9.7 ENERGY CONSUMPTION 133
9.8 RISKS FOR POPULATION HEALTH 133
9.9 PUBLIC CONCEPTION OF WATER QUALITY 133
9.10 THE POTENTIAL FOR ALTERNATIVE WATER RESOURCE USE IN CITIES 133
Appendix: List of screened cases 135