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Improving Water Supply Networks : Fit for Purpose Strategies and Technologies / Stuart Hamilton.
- Format:
- Book
- Author/Creator:
- Hamilton, Stuart, author.
- Language:
- English
- Subjects (All):
- Water utilities.
- Water-supply--Management.
- Water-supply.
- Physical Description:
- 1 online resource
- Other Title:
- Improving Water Supply Networks
- Place of Publication:
- London : IWA Publishing, 2021.
- Summary:
- Knowing how to manage the losses from water supply networks and how to get to the next level in bettering your system is a major problem and one that is most common in the majority of water companies worldwide. Sometimes water companies set their sights too high and cannot deliver due to non-realistic targets setting. Of course this is considered or seen as a failure within the company or country when it is really just exceeding expectations of what can be delivered.The aim of Improving Water Supply Networks is to assist water companies to identify where they are on the 'water loss ladder' and what is required to move to the next level. The book will provide an understanding of what the water companies need to achieve and where they should be aiming for in their efforts to reduce water losses. The book provides useful and practical information on non-revenue water (NRW) issues and solutions enriched with relevant case studies.
- Contents:
- Cover
- Contents
- Useful Acronyms and Abbreviations
- Preface
- Part One: Chapters 1-8
- Chapter 1: The water system improvement matrix
- 1.1 MATRIX CHARACTERISTICS
- 1.2 MATRIX SCORING SYSTEM
- 1.3 WATER SYSTEM IMPROVEMENT MATRIX
- 1.4 KEY AREAS AND IMPROVEMENT STEP LADDERS
- Chapter 2: Water distribution systems
- 2.1 REQUIREMENTS OF A FUNCTIONAL DISTRIBUTION SYSTEM
- 2.2 BULK FLOW MANAGEMENT
- 2.3 CUSTOMER METERING
- 2.4 PRESSURE MANAGEMENT
- 2.5 LEAKAGE MANAGEMENT
- 2.6 ASSET MANAGEMENT
- 2.7 WATER BALANCE AND KPIs
- 2.8 HUMAN RESOURCES
- Chapter 3: Basic network systems
- 3.1 BULK FLOW MANAGEMENT
- 3.2 CUSTOMER METERING
- 3.2.1 Water wastage
- 3.3 PRESSURE MANAGEMENT
- 3.4 LEAKAGE MANAGEMENT
- 3.4.1 Leakage in an Intermittent Water System
- 3.5 ASSET MANAGEMENT
- 3.6 WATER BALANCE AND KPIs
- 3.6.1 Water loss performance indicators
- 3.6.2 Volumetric assessment
- 3.7 HUMAN RESOURCES
- 3.8 MOVING TO THE NEXT LEVEL
- 3.8.1 Transitioning a system to 24 × 7 supply
- 3.8.2 Planning the transition from IWS to 24 × 7
- 3.8.3 Consumers and transitioning to 24 × 7 supply
- 3.9 DANGERS OF REVERTING TO IWS
- Chapter 4: Ordinary network systems
- 4.1 BULK FLOW MANAGEMENT
- 4.2 CUSTOMER METERING
- 4.3 PRESSURE MANAGEMENT
- 4.4 LEAKAGE MANAGEMENT
- 4.5 ASSET MANAGEMENT
- 4.6 WATER BALANCE AND KPIS
- 4.6.1 Apparent losses expressed as a percentage of authorised consumption
- 4.6.2 Real losses in litres per service connection per day or m3/km of mains/day (w.s.p.)
- 4.6.3 Infrastructure Leakage Index
- 4.6.4 NRW by volume (%)
- 4.6.5 NRW by value
- 4.6.6 NRW in litres/service connection/day (w.s.p.)
- 4.7 HUMAN RESOURCES
- 4.8 MOVING TO THE NEXT LEVEL
- Chapter 5: Smart network systems
- 5.1 BULK FLOW MANAGEMENT
- 5.2 CUSTOMER METERING
- 5.3 PRESSURE MANAGEMENT
- 5.4 LEAKAGE MANAGEMENT. 5.5 ASSET MANAGEMENT
- 5.6 WATER BALANCE AND KPIS?
- 5.7 HUMAN RESOURCES
- 5.8 MOVING TO THE NEXT LEVEL
- Chapter 6: Intelligent network systems
- 6.1 BULK FLOW MANAGEMENT
- 6.2 CUSTOMER METERING
- 6.3 PRESSURE MANAGEMENT
- 6.4 LEAKAGE MANAGEMENT
- 6.5 ASSET MANAGEMENT
- 6.6 WATER BALANCE AND KPIS?
- 6.7 HUMAN RESOURCES
- Chapter 7: ALC in low pressure systems with both metallic and non-metallic pipes
- 7.1 INTRODUCTION
- 7.2 HUMAN HEARING
- 7.3 LEAK NOISE IS PRESSURE RELIANT
- 7.4 METHODS OF CONDUCTING WATER LEAK LOCATION
- 7.5 EVOLUTION OF THE ROLE OF THE LEAKAGE ENGINEER
- 7.6 PRACTICAL APPLICATION
- 7.7 RESULTS FROM PILOT AREA WITH PLASTIC AND POLYETHYLENE PIPEWORK
- 7.8 WORKING IN LOW PRESSURES SYSTEMS WITH PLASTIC AND POLYETHYLENE PIPELINES
- 7.9 CONCLUSION
- 7.10 ACKNOWLEDGEMENTS
- Chapter 8: Losses and how to find them
- rules that apply to all situations
- 8.1 METHODOLOGY FOR LEAKAGE DETECTION ACTIVITY
- Part Two: Case study 1-10
- Case study 1: Five cities around the world
- CASE I
- CITY IN THE MIDDLE EAST
- CASE II
- CASE III
- CITY IN ASIA
- CASE IV
- CASE V
- CITY IN AFRICA
- CONCLUSION
- Case study 2: A holistic approach to system improvement
- BACKGROUND
- PERFORMANCE
- UNIQUE PROGRAMME FEATURES THAT DROVE THE SUCCESS
- METHODOLOGY
- CONCLUSIONS
- Case study 3: NB-IoT expedites leak detection
- Case study 4: Anglian water
- THE CHALLENGE
- THE SOLUTION
- ADVANCED PERFORMANCE
- KEY DELIVERABLES
- Case study 5: Ranhill SAJ Sdn Bhd
- Case study 6: Acoustic leak detection solution delivering from day one
- DELIVERING FROM DAY ONE
- DAILY OPERATIONS TOOL
- LOCAL HEROES
- ON THE RIGHT TRACK
- Case study 7: Smart water metering gives water 24-hours a day
- EFFECTIVE WATER MANAGEMENT. ECONOMIC WIN-WIN
- TESTIMONIALS
- Case study 8: Real-life innovation
- THE VALUE OF COLLABORATION
- WHAT DOES A HOLE SOUND LIKE?
- LONG-TERM FOCUS ON ASSET MANAGEMENT
- Case study 9: Enabling the digital journey for a water utility
- INTRODUCTION
- THE GRAND BAHAMA UTILITY COMPANY
- NEXT STEP
- Case study 10: City of sheridan deploys new AMI system, resulting in Big labour savings and improved system maintenance
- SUMMARY
- OPERATIONAL EFFICIENCY
- ON-DEMAND READ
- AROUND THE CLOCK SYSTEM MANAGEMENT
- SAFE AND RELIABLE.
- Notes:
- Description based on publisher supplied metadata and other sources.
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