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El. knyga: Water Reuse: Issues, Technologies, and Applications

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  • Formatas: 1570 pages
  • Išleidimo metai: 05-Feb-2007
  • Leidėjas: McGraw-Hill Professional
  • Kalba: eng
  • ISBN-13: 9780071508773
Kitos knygos pagal šią temą:
  • Formatas: 1570 pages
  • Išleidimo metai: 05-Feb-2007
  • Leidėjas: McGraw-Hill Professional
  • Kalba: eng
  • ISBN-13: 9780071508773
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An Integrated Approach to Managing the World's Water Resources

Water Reuse: Issues, Technologies, and Applications equips water/wastewater students, engineers, scientists, and professionals with a definitive account of the latest water reclamation, recycling, and reuse theory and practice. This landmark textbook presents an integrated approach to all aspects of water reuse _ from public health protection to water quality criteria and regulations to advanced technology to implementation issues.

Filled with over 500 detailed illustrations and photographs, Water Reuse: Issues, Technology, and Applications features:





In-depth coverage of cutting-edge water reclamation and reuse applications Current issues and developments in public health and environmental protection criteria, regulations, and risk management Review of current advanced treatment technologies, new developments, and practices Special emphasis on process reliability and multiple barrier concepts approach Consideration of satellite and decentralized water reuse facilities Consideration of planning and public participation of water reuse

Inside This Landmark Water/Wastewater Management Tool

Water Reuse: An Introduction Health and Environmental Concerns in Water Reuse Technologies and Systems for Water Reclamation and Reuse Water Reuse Applications Implementing Water Reuse
Preface xxvii
Acknowledgments xxxiii
Foreword xxxvii
Part 1 Water Reuse: An Introduction
1(70)
Water Issues: Current Status and the Role of Water Reclamation and Reuse
3(34)
Working Terminology
4(2)
Definition of Terms
6(1)
Principles of Sustainable Water Resources Management
6(9)
The principle of sustainability
7(1)
Working definitions of sustainability
7(1)
Challenges for sustainability
7(1)
Criteria for sustainable water resources management
7(6)
Environmental ethics
13(2)
Current and Potential Future Global Water Shortages
15(8)
Impact of current and projected world population
15(4)
Potential global water shortages
19(1)
Water scarcity
19(1)
Potential regional water shortages in the continental United States
20(3)
The Important Role of Water Reclamation and Reuse
23(7)
Types of water reuse
24(1)
Integrated water resources planning
24(3)
Personnel needs/sustainable engineering
27(1)
Treatment and technology needs
27(1)
Infrastructure and planning issues
28(2)
Water Reclamation and Reuse and Its Future
30(7)
Implementation hurdles
31(1)
Public support
31(1)
Acceptance varies depending on opportunity and necessity
31(1)
Public water supply from polluted water sources
31(1)
Advances in water reclamation technologies
31(1)
Challenges for water reclamation and reuse
32(1)
Problems and Discussion Topics
32(1)
References
33(4)
Water Reuse: Past and Current Practices
37(34)
Working Terminology
38(1)
Evolution of Water Reclamation and Reuse
39(6)
Historical development prior to 1960
39(2)
Era of water reclamation and reuse in the United States-post-1960
41(4)
Impact of State and Federal Statutes on Water Reclamation and Reuse
45(1)
The Clean Water Act
45(1)
The Safe Drinking Water Act
46(1)
Water Reuse---Current Status in the United States
46(1)
Withdrawal of water from surface and groundwater sources
46(1)
Availability and reuse of treated wastewater
46(1)
Milestone water reuse projects and research studies
47(1)
Water Reuse in California: A Case Study
47(6)
Experience with water reuse
47(1)
Current water reuse status
48(3)
Water reuse policies and recycling regulations
51(1)
Potential future uses of reclaimed water
52(1)
Water Reuse in Florida: A Case Study
53(5)
Experience with water reuse
54(1)
Current water reuse status
54(2)
Water reuse policies and recycling regulations
56(1)
Potential future uses of reclaimed water
56(2)
Water Reuse in Other Parts of the World
58(5)
Significant developments worldwide
58(1)
The World Health Organization's water reuse guidelines
59(1)
Water reuse in developing countries
59(4)
Summary and Lessons Learned
63(8)
Problems and Discussion Topics
65(1)
References
66(5)
Part 2 Health and Environmental Concerns in Water Reuse
71(184)
Characteristics of Municipal Wastewater and Related Health and Environmental Issues
73(58)
Working Terminology
74(3)
Wastewater in Public Water Supplies---de facto Potable Reuse
77(1)
Presence of treated wastewater in public water supplies
78(1)
Impact of the presence of treated wastewater on public water supplies
78(1)
Introduction to Waterborne Diseases and Health Issues
78(5)
Important historical events
79(1)
Waterborne disease
80(1)
Etiology of waterborne disease
81(2)
Waterborne Pathogenic Microorganisms
83(9)
Terminology conventions for organisms
83(1)
Log removal
83(1)
Bacteria
83(4)
Protozoa
87(2)
Helminths
89(1)
Viruses
89(3)
Indicator Organisms
92(2)
Characteristics of an ideal indicator organism
92(1)
The coliform group bacteria
93(1)
Bacteriophages
93(1)
Other indicator organisms
94(1)
Occurrence of Microbial Pathogens in Untreated and Treated Wastewater and in the Environment
94(9)
Pathogens in untreated wastewater
94(3)
Pathogens in treated wastewater
97(5)
Pathogens in the environment
102(1)
Survival of pathogenic organisms
102(1)
Chemical Constituents in Untreated and Treated Wastewater
103(14)
Chemical constituents in untreated wastewater
103(1)
Constituents added through domestic commercial and industrial usage
104(4)
Chemical constituents in treated wastewater
108(5)
Formation of disinfection byproducts (DBPs)
113(1)
Comparison of treated wastewater to natural water
114(1)
Use of surrogate parameters
115(2)
Emerging Contaminants in Water and Wastewater
117(3)
Endocrine disruptors and pharmaceutically active chemicals
117(1)
Some specific constituents with emerging concern
118(2)
New and reemerging microorganisms
120(1)
Environmental Issues
120(11)
Effects on soils and plants
121(1)
Effects on surface water and groundwater
121(1)
Effects on ecosystems
121(1)
Effects on development and land use
122(1)
Problems and Discussion Topics
122(2)
References
124(7)
Water Reuse Regulations and Guidelines
131(60)
Working Terminology
132(2)
Understanding Regulatory Terminology
134(1)
Standard and criterion
134(1)
Standard versus criterion
134(1)
Regulation
135(1)
Difference between regulations and guidelines
135(1)
Water reclamation and reuse
135(1)
Development of Standards, Regulations, and Guidelines for Water Reuse
135(4)
Basis for water quality standards
136(1)
Development of water reuse regulations and guidelines
136(3)
The regulatory process
139(1)
General Regulatory Considerations Related to Water Reclamation and Reuse
139(10)
Constituents and physical properties of concern in wastewater
139(3)
Wastewater treatment and water quality considerations
142(3)
Reclaimed water quality monitoring
145(1)
Storage requirements
146(1)
Reclaimed water application rates
147(1)
Aerosols and windborne sprays
147(2)
Regulatory Considerations for Specific Water Reuse Applications
149(6)
Agricultural irrigation
149(1)
Landscape irrigation
150(1)
Dual distribution systems and in-building uses
151(1)
Impoundments
152(1)
Industrial uses
153(1)
Other nonpotable uses
153(1)
Groundwater recharge
154(1)
Regulatory Considerations for Indirect Potable Reuse
155(2)
Use of the most protected water source
155(1)
Influence of the two water acts
155(1)
Concerns for trace chemical constituents and pathogens
156(1)
Assessment of health risks
157(1)
State Water Reuse Regulations
157(12)
Status of water reuse regulations and guidelines
158(1)
Regulations and guidelines for specific reuse applications
158(7)
Regulatory requirements for nonpotable uses of reclaimed water
165(2)
State regulations for indirect potable reuse
167(2)
U.S. EPA Guidelines for Water Reuse
169(10)
Disinfection requirements
169(9)
Microbial limits
178(1)
Control measures
178(1)
Recommendations for indirect potable reuse
178(1)
World Health Organization Guidelines for Water Reuse
179(5)
1989 WHO guidelines for agriculture and aquaculture
180(1)
The Stockholm framework
180(1)
Disability adjusted life years
180(1)
Concept of tolerable (acceptable) risk
181(1)
Tolerable microbial risk in water
181(1)
2006 WHO guidelines for the safe use of wastewater in agriculture
182(2)
Future Directions in Regulations and Guidelines
184(7)
Continuing development of state standards, regulations, and guidelines
184(1)
Technical advances in treatment processes
184(1)
Information needs
184(1)
Problems and Discussion Topics
185(2)
References
187(4)
Health Risk Analysis in Water Reuse Applications
191(64)
Working Terminology
192(1)
Risk Analysis: An Overview
193(4)
Historical development of risk assessment
194(1)
Objectives and applications of human health risk assessment
194(1)
Elements of risk analysis
194(2)
Risk analysis: definitions and concepts
196(1)
Health Risk Assessment
197(8)
Hazard identification
198(1)
Dose-response assessment
198(2)
Dose-response models
200(4)
Exposure assessment
204(1)
Risk characterization
204(1)
Comparison of human health and ecological risk assessment
205(1)
Risk Management
205(1)
Risk Communication
206(1)
Tools and Methods Used in Risk Assessment
207(8)
Concepts from public health
207(1)
Concepts from epidemiology
208(1)
Concepts from toxicology
209(4)
National toxicology program cancer bioassay
213(1)
Ecotoxicology: environmental effects
214(1)
Chemical Risk Assessment
215(10)
Safety and risk determination in regulation of chemical agents
215(5)
Risks from potential nonthreshold toxicants
220(4)
Risk considerations
224(1)
Chemical risk assessment summary
225(1)
Microbial Risk Assessment
225(9)
Infectious disease paradigm for microbial risk assessment
225(2)
Microbial risk assessment methods
227(1)
Static microbial risk assessment models
227(2)
Dynamic microbial risk assessment models
229(3)
Selecting a microbial risk model
232(2)
Application of Microbial Risk Assessment in Water Reuse Applications
234(15)
Microbial risk assessment employing a static model
234(5)
Microbial risk assessment employing dynamic models
239(5)
Risk assessment for water reuse from enteric viruses
244(5)
Limitations in Applying Risk Assessment to Water Reuse Applications
249(6)
Relative nature of risk assessment
249(1)
Inadequate consideration of secondary infections
249(1)
Limited dose-response data
250(1)
Problems and Discussion Topics
250(1)
References
251(4)
Part 3 Technologies and Systems for Water Reclamation and Reuse
255(672)
Water Reuse Technologies and Treatment Systems: An Overview
257(38)
Working Terminology
258(2)
Constituents in Untreated Municipal Wastewater
260(1)
Technology Issues in Water Reclamation and Reuse
260(5)
Water reuse applications
262(1)
Water quality requirements
262(1)
Multiple barrier concept
263(2)
Need for multiple treatment technologies
265(1)
Treatment Technologies for Water Reclamation Applications
265(7)
Removal of dissolved organic matter, suspended solids, and nutrients by secondary treatment
268(1)
Removal of residual particulate matter in secondary effluent
269(2)
Removal of residual dissolved constituents
271(1)
Removal of trace constituents
271(1)
Disinfection processes
271(1)
Important Factors in the Selection of Technologies for Water Reuse
272(9)
Multiple water reuse applications
273(1)
Need to remove trace constituents
273(3)
Need to conduct pilot-scale testing
276(1)
Process reliability
276(3)
Standby and redundancy considerations
279(1)
Infrastructure needs for water reuse applications
280(1)
Impact of Treatment Plant Location on Water Reuse
281(5)
Centralized treatment plants
282(1)
Satellite treatment facilities
282(1)
Decentralized treatment facilities
283(3)
The Future of Water Reclamation Technologies and Treatment Systems
286(9)
Implication of trace constituents on future water reuse
287(1)
New regulations
287(1)
Retrofitting existing treatment plants
288(1)
New treatment plants
289(1)
Satellite treatment systems
289(1)
Decentralized treatment facilities and systems
289(1)
New infrastructure concepts and designs
290(1)
Research needs
291(1)
Problems and Discussion Topics
292(1)
References
293(2)
Removal of Constituents by Secondary Treatment
295(78)
Working Terminology
296(3)
Constituents in Untreated Wastewater
299(5)
Constituents of concern
299(1)
Typical constituent concentration values
299(2)
Variability of mass loadings
301(3)
Technologies for Water Reuse Applications
304(3)
Nonmembrane Processes for Secondary Treatment
307(13)
Suitability for reclaimed water applications
307(1)
Process descriptions
308(2)
Process performance expectations
310(8)
Importance of secondary sedimentation tank design
318(2)
Nonmembrane Processes for the Control and Removal of Nutrients in Secondary Treatment
320(8)
Nitrogen control
320(1)
Nitrogen removal
321(3)
Phosphorus removal
324(4)
Process performance expectations
328(1)
Membrane Bioreactor Processes for Secondary Treatment
328(12)
Description of membrane bioreactors
330(1)
Suitability of MBRs for reclaimed water applications
331(1)
Types of membrane bioreactor systems
332(1)
Principal proprietary submerged membrane systems
333(5)
Other membrane systems
338(2)
Process performance expectations
340(1)
Analysis and Design of Membrane Bioreactor Processes
340(21)
Process analysis
340(13)
Design considerations
353(5)
Nutrient removal
358(3)
Biosolids processing
361(1)
Issues in the Selection of Secondary Treatment Processes
361(12)
Expansion of an existing plant vs. construction of a new plant
362(1)
Final use of effluent
362(1)
Comparative performance of treatment processes
362(1)
Pilot-scale studies
362(1)
Type of disinfection process
362(1)
Future water quality requirements
363(1)
Energy considerations
363(1)
Site constraints
364(4)
Economic and other considerations
368(1)
Problems and Discussion Topics
368(3)
References
371(2)
Removal of Residual Particulate Matter
373(88)
Working Terminology
374(1)
Characteristics of Residual Suspended Particulate Matter from Secondary Treatment Processes
375(13)
Residual constituents and properties of concern
375(10)
Removal of residual particles from secondary treatment processes
385(3)
Technologies for the Removal of Residual Suspended Particulate Matter
388(4)
Technologies for reclaimed water applications
388(2)
Process flow diagrams
390(1)
Process performance expectations
390(2)
Suitability for reclaimed water applications
392(1)
Depth Filtration
392(25)
Available filtration technologies
392(6)
Performance of depth filters
398(9)
Design considerations
407(8)
Pilot-scale studies
415(2)
Operational issues
417(1)
Surface Filtration
417(8)
Available filtration technologies
419(3)
Performance of surface filters
422(1)
Design considerations
423(2)
Pilot-scale studies
425(1)
Membrane Filtration
425(20)
Membrane terminology, types, classification, and flow patterns
426(4)
Microfiltration and ultrafiltration
430(5)
Process analysis for MF and UF membranes
435(1)
Operating characteristics and strategies for MF and UF membranes
436(1)
Membrane performance
436(5)
Design considerations
441(1)
Pilot-scale studies
441(2)
Operational issues
443(2)
Dissolved Air Flotation
445(9)
Process description
445(3)
Performance of DAF process
448(1)
Design considerations
448(5)
Operating considerations
453(1)
Pilot-scale studies
453(1)
Issues in the Selection of Technologies for the Removal of Residual Particulate Matter
454(7)
Final use of effluent
454(1)
Comparative performance of technologies
455(1)
Results of pilot-scale studies
455(1)
Type of disinfection process
455(1)
Future water quality requirements
455(1)
Energy considerations
455(1)
Site constraints
455(1)
Economic considerations
455(1)
Problems and Discussion Topics
456(3)
References
459(2)
Removal of Dissolved Constituents with Membranes
461(64)
Working Terminology
462(1)
Introduction to Technologies Used for the Removal of Dissolved Constituents
463(4)
Membrane separation
463(1)
Definition of osmotic pressure
463(2)
Nanofiltration and reverse osmosis
465(1)
Electrodialysis
466(1)
Typical process applications and flow diagrams
467(1)
Nanofiltration
467(6)
Types of membranes used in nanofiltration
468(3)
Application of nanofiltration
471(1)
Performance expectations
471(2)
Reverse Osmosis
473(2)
Types of membranes used in reverse osmosis
473(1)
Application of reverse osmosis
474(1)
Performance expectations
474(1)
Design and Operational Considerations for Nanofiltration and Reverse Osmosis Systems
475(24)
Feedwater considerations
475(2)
Pretreatment
477(2)
Treatability testing
479(3)
Membrane flux and area requirements
482(5)
Membrane fouling
487(3)
Control of membrane fouling
490(1)
Process operating parameters
490(2)
Posttreatment
492(7)
Pilot-Plant Studies for Nanofiltration and Reverse Osmosis
499(2)
Electrodialysis
501(8)
Description of the electrodialysis process
501(1)
Electrodialysis reversal
502(1)
Power consumption
503(3)
Design and operating considerations
506(1)
Membrane and electrode life
507(1)
Advantages and disadvantages of electrodialysis versus reverse osmosis
508(1)
Management of Membrane Waste Streams
509(16)
Membrane concentrate issues
509(2)
Thickening and drying of waste streams
511(4)
Ultimate disposal methods for membrane waste streams
515(4)
Problems and Discussion Topics
519(3)
References
522(3)
Removal of Residual Trace Constituents
525(74)
Working Terminology
526(2)
Introduction to Technologies Used for the Removal of Trace Constituents
528(4)
Separation processes based on mass transfer
528(3)
Chemical and biological transformation processes
531(1)
Adsorption
532(19)
Applications for adsorption
532(1)
Types of adsorbents
533(3)
Basic considerations for adsorption processes
536(15)
Adsorption process limitations
551(1)
Ion Exchange
551(9)
Applications for ion exchange
552(2)
Ion exchange materials
554(1)
Basic considerations for ion exchange processes
555(4)
Ion exchange process limitations
559(1)
Distillation
560(3)
Applications for distillation
560(1)
Distillation processes
560(2)
Basic considerations for distillation processes
562(1)
Distillation process limitations
563(1)
Chemical Oxidation
563(4)
Applications for conventional chemical oxidation
563(1)
Oxidants used in chemical oxidation processes
563(3)
Basic considerations for chemical oxidation processes
566(1)
Chemical oxidation process limitations
567(1)
Advanced Oxidation
567(11)
Applications for advanced oxidation
568(1)
Processes for advanced oxidation
569(5)
Basic considerations for advanced oxidation processes
574(3)
Advanced oxidation process limitations
577(1)
Photolysis
578(8)
Applications for photolysis
578(1)
Photolysis processes
579(1)
Basic considerations for photolysis processes
579(7)
Photolysis process limitations
586(1)
Advanced Biological Transformations
586(13)
Basic considerations for advanced biological treatment processes
587(1)
Advanced biological treatment processes
588(2)
Limitations of advanced biological transformation processes
590(1)
Problems and Discussion Topics
591(3)
References
594(5)
Disinfection Processes for Water Reuse Applications
599(126)
Working Terminology
600(2)
Disinfection Technologies Used for Water Reclamation
602(4)
Characteristics for an ideal disinfectant
602(1)
Disinfection agents and methods in water reclamation
602(2)
Mechanisms used to explain action of disinfectants
604(1)
Comparison of reclaimed water disinfectants
605(1)
Practical Considerations and Issues for Disinfection
606(16)
Physical facilities used for disinfection
606(3)
Factors affecting performance
609(7)
Development of the CRt Concept for predicting disinfection performance
616(1)
Application of the CRt concept for reclaimed water disinfection
617(1)
Performance comparison of disinfection technologies
618(1)
Advantages and disadvantages of alternative disinfection technologies
618(4)
Disinfection with Chlorine
622(32)
Characteristics of chlorine compounds
622(2)
Chemistry of chlorine compounds
624(2)
Breakpoint reaction with chlorine
626(5)
Measurement and reporting of disinfection process variables
631(1)
Germicidal efficiency of chlorine and various chlorine compounds in clean water
631(1)
Form of residual chlorine and contact time
631(2)
Factors that affect disinfection of reclaimed water with chlorine
633(2)
Chemical characteristics of the reclaimed water
635(4)
Modeling the chlorine disinfection process
639(2)
Required chlorine dosages for disinfection
641(3)
Assessing the hydraulic performance of chlorine contact basins
644(6)
Formation and control of disinfection byproducts
650(4)
Environmental impacts
654(1)
Disinfection with Chlorine Dioxide
654(3)
Characteristics of chlorine dioxide
655(1)
Chlorine dioxide chemistry
655(1)
Effectiveness of chlorine dioxide as a disinfectant
655(1)
Byproduct formation and control
656(1)
Environmental impacts
657(1)
Dechlorination
657(3)
Dechlorination of reclaimed water treated with chlorine and chlorine compounds
657(3)
Dechlorination of chlorine dioxide with sulfur dioxide
660(1)
Disinfection with Ozone
660(11)
Ozone properties
660(1)
Ozone chemistry
661(1)
Ozone disinfection systems components
662(4)
Effectiveness of ozone as a disinfectant
666(1)
Modeling the ozone disinfection process
666(3)
Required ozone dosages for disinfection
669(1)
Byproduct formation and control
670(1)
Environmental impacts of using ozone
671(1)
Other benefits of using ozone
671(1)
Other Chemical Disinfection Methods
671(3)
Peracetic acid
671(1)
Combined chemical disinfection processes
672(2)
Disinfection with Ultraviolet Radiation
674(51)
Source of UV radiation
674(1)
Types of UV lamps
674(4)
UV disinfection system configurations
678(4)
Mechanism of inactivation by UV irradiation
682(2)
Factors affecting germicidal effectiveness of UV irradiation
684(6)
Modeling the UV disinfection process
690(1)
Estimating UV dose
691(9)
Ultraviolet disinfection guidelines
700(8)
Analysis of a UV disinfection system
708(1)
Operational issues with UV disinfection systems
708(3)
Environmental impacts of UV irradiation
711(1)
Problems and Discussion Topics
712(6)
References
718(7)
Satellite Treatment Systems for Water Reuse Applications
725(38)
Working Terminology
726(1)
Introduction to Satellite Systems
727(3)
Types of satellite treatment systems
728(2)
Important factors in selecting the use of satellite systems
730(1)
Planning Considerations for Satellite Systems
730(5)
Identification of near-term and future reclaimed water needs
730(1)
Integration with existing facilities
731(1)
Siting considerations
731(3)
Public perception, legal aspects, and institutional issues
734(1)
Economic considerations
735(1)
Environmental considerations
735(1)
Governing regulations
735(1)
Satellite Systems for Nonagricultural Water Reuse Applications
735(3)
Reuse in buildings
736(1)
Landscape irrigation
736(1)
Lakes and recreational enhancement
736(1)
Groundwater recharge
736(1)
Industrial applications
737(1)
Collection System Requirements
738(1)
Interception type satellite system
738(1)
Extraction type satellite system
738(1)
Upstream type satellite system
739(1)
Wastewater Characteristics
739(2)
Interception type satellite system
740(1)
Extraction type satellite system
740(1)
Upstream type satellite system
741(1)
Infrastructure Facilities for Satellite Treatment Systems
741(4)
Diversion and junction structures
741(3)
Flow equalization and storage
744(1)
Pumping, transmission, and distribution of reclaimed water
745(1)
Treatment Technologies for Satellite Systems
745(3)
Conventional technologies
745(1)
Membrane bioreactors
746(1)
Sequencing batch reactor
746(2)
Integration with Existing Facilities
748(3)
Case Study 1: Solaire Building New York, New York
751(4)
Setting
751(1)
Water management issues
751(1)
Implementation
752(1)
Lessons learned
753(2)
Case Study 2: Water Reclamation and Reuse in Tokyo, Japan
755(5)
Setting
755(1)
Water management issues
755(1)
Implementation
756(2)
Lessons learned
758(2)
Case Study 3: City of Upland, California
760(3)
Setting
760(1)
Water management issues
760(1)
Implementation
760(1)
Lessons learned
761(1)
Problems and Discussion Topics
761(1)
References
762(1)
Onsite and Decentralized Systems for Water Reuse
763(66)
Working Terminology
764(2)
Introduction to Decentralized Systems
766(4)
Definition of decentralized systems
766(1)
Importance of decentralized systems
767(3)
Integration with centralized systems
770(1)
Types of Decentralized Systems
770(4)
Individual onsite systems
771(1)
Cluster systems
771(1)
Housing development and small community systems
772(2)
Wastewater Flowrates and Characteristics
774(11)
Wastewater flowrates
774(4)
Wastewater constituent concentrations
778(7)
Treatment Technologies
785(21)
Source separating systems
786(2)
In-building pretreatment
788(1)
Primary treatment
788(4)
Secondary treatment
792(5)
Nutrient removal
797(5)
Disinfection processes
802(2)
Performance
804(1)
Reliability
804(1)
Maintenance needs
804(2)
Technologies for Housing Developments and Small Community Systems
806(10)
Collection systems
807(8)
Treatment technologies
815(1)
Decentralized Water Reuse Opportunities
816(5)
Landscape irrigation systems
816(2)
Irrigation with greywater
818(1)
Groundwater recharge
818(3)
Self-contained recycle systems
821(1)
Habitat development
821(1)
Management and Monitoring of Decentralized Systems
821(8)
Types of management structures
821(3)
Monitoring and control equipment
824(2)
Problems and Discussion Topics
826(1)
References
827(2)
Distribution and Storage of Reclaimed Water
829(72)
Working Terminology
830(1)
Issues in the Planning Process
831(2)
Type, size, and location of facilities
831(1)
Individual reclaimed water system versus dual distribution system
832(1)
Public concerns and involvement
833(1)
Planning and Conceptual Design of Distribution and Storage Facilities
833(23)
Location of reclaimed water supply, major users, and demands
834(1)
Quantities and pressure requirements for major demands
834(2)
Distribution system network
836(5)
Facility design criteria
841(4)
Distribution system analysis
845(2)
Optimization of distribution system
847(9)
Pipeline Design
856(10)
Location of reclaimed water pipelines
856(2)
Design criteria for reclaimed water pipelines
858(1)
Pipeline materials
858(2)
Joints and connections
860(1)
Corrosion protection
861(1)
Pipe identification
862(1)
Distribution system valves
863(1)
Distribution system appurtenances
863(3)
Pumping Systems
866(11)
Pumping station location and site layout
866(1)
Pump types
867(3)
Pumping station performance
870(1)
Constant versus variable speed operation
870(1)
Valves
871(1)
Equipment and piping layout
872(1)
Emergency power
872(3)
Effect of pump operating schedule on system design
875(2)
Design of Reclaimed Water Storage Facilities
877(5)
Location of reclaimed water reservoirs
878(1)
Facility and site layout for reservoirs, piping, and appurtenances
879(2)
Materials of construction
881(1)
Protective coatings---interior and exterior
881(1)
Operation and Maintenance of Distribution Facilities
882(2)
Pipelines
883(1)
Pumping stations
884(1)
Water Quality Management Issues in Reclaimed Water Distribution and Storage
884(17)
Water quality issues
885(2)
Impact of water quality issues
887(1)
The effect of storage on water quality changes
887(2)
Strategies for managing water quality in open and enclosed reservoirs
889(3)
Problems and Discussion Topics
892(6)
References
898(3)
Dual Plumbing Systems
901(26)
Working Terminology
902(1)
Overview of Dual Plumbing Systems
902(5)
Rationale for dual plumbing systems
902(1)
Applications for dual plumbing systems
903(4)
Planning Considerations for Dual Plumbing Systems
907(1)
Applications for dual plumbing systems
907(1)
Regulations and codes governing dual plumbing systems
908(1)
Applicable health and safety regulations
908(1)
Design Considerations for Dual Distribution Systems
908(5)
Plumbing codes
908(1)
Safeguards
908(5)
Inspection and Operating Considerations
913(2)
Case Study: Irvine Ranch Water District, Orange County, California
915(4)
Setting
915(1)
Water management issues
915(1)
Implementation
916(2)
Operational issues
918(1)
Lessons learned
919(1)
Case Study: Rouse Hill Recycled Water Area Project (Australia)
919(2)
Setting
919(1)
Water management issues
920(1)
Implementation
920(1)
Lessons learned
920(1)
Case Study: Serrano, California
921(6)
Setting
922(1)
Water management issues
922(1)
Implementation
923(2)
Lessons learned
925(1)
Problems and Discussion Topics
925(1)
References
926(1)
Part 4 Water Reuse Applications
927(452)
Water Reuse Applications: An Overview
929(18)
Working Terminology
930(1)
Water Reuse Applications
930(4)
Agricultural irrigation
931(1)
Landscape irrigation
931(1)
Industrial uses
931(2)
Urban nonirrigation uses
933(1)
Environmental and recreational uses
933(1)
Groundwater recharge
933(1)
Indirect potable reuse through surface water augmentation
933(1)
Direct potable reuse
934(1)
Water reuse applications in other parts of the world
934(1)
Issues in Water Reuse
934(3)
Resource sustainability
934(1)
water resource opportunities
935(1)
Reliability of water supply
935(1)
Economic considerations
935(1)
Public policy
935(1)
Regulations
936(1)
Issues and constraints for specific applications
937(1)
Important Factors in the Selection of Water Reuse Applications
937(4)
Water quality considerations
937(2)
Types of technology
939(1)
Matching supply and demand
939(1)
Infrastructure requirements
939(1)
Economic feasibility (affordability)
940(1)
Environmental considerations
941(1)
Future Trends in Water Reuse Applications
941(6)
Changes in regulations
942(1)
Water supply augmentation
942(1)
Decentralized and satellite systems
942(1)
New treatment technologies
942(2)
Issues associated with potable reuse
944(1)
Problems and Discussion Topics
944(1)
References
944(3)
Agricultural Uses of Reclaimed Water
947(96)
Working Terminology
948(1)
Agricultural Irrigation with Reclaimed Water: An Overview
949(5)
Reclaimed water irrigation for agriculture in the United States
950(2)
Reclaimed water irrigation for agriculture in the world
952(1)
Regulations and guidelines related to agricultural irrigation with reclaimed water
953(1)
Agronomics and Water Quality Considerations
954(17)
Soil characteristics
955(3)
Suspended solids
958(1)
Salinity, sodicity, and specific ion toxicity
959(7)
Trace elements and nutrients
966(5)
Crop selection
971(1)
Elements for the Design of Reclaimed Water Irrigation Systems
971(37)
Water reclamation and reclaimed water quantity and quality
977(1)
Selection of the type of irrigation system
977(9)
Leaching requirements
986(3)
Estimation of water application rate
989(8)
Field area requirements
997(1)
Drainage systems
998(5)
Drainage water management and disposal
1003(1)
Storage system
1003(5)
Irrigation scheduling
1008(1)
Operation and Maintenance of Reclaimed Water Irrigation Systems
1008(7)
Demand-supply management
1009(1)
Nutrient management
1009(2)
Public health protection
1011(1)
Effects of reclaimed water irrigation on soils and crops
1011(3)
Monitoring requirements
1014(1)
Case Study: Monterey Wastewater Reclamation Study for Agriculture---Monterey, California
1015(7)
Setting
1016(1)
Water management issues
1016(1)
Implementation
1016(1)
Study results
1017(4)
Subsequent projects
1021(1)
Recycled water food safety study
1021(1)
Lessons learned
1021(1)
Case Study: Water Conserv II, Florida
1022(6)
Setting
1023(1)
Water management issues
1023(1)
Implementation
1023(4)
Importance of Water Conserv II
1027(1)
Lessons learned
1027(1)
Case Study: The Virginia Pipeline Scheme, South Australia---Seasonal ASR of Reclaimed Water for irrigation
1028(15)
Setting
1028(1)
Water management issues
1029(1)
Regulatory requirements
1029(1)
Technology issues
1029(1)
Implementation
1030(2)
Performance and operations
1032(3)
Lessons learned
1035(1)
Problems and Discussion Topics
1035(3)
References
1038(5)
Landscape Irrigation with Reclaimed Water
1043(60)
Working Terminology
1044(1)
Landscape Irrigation: An Overview
1045(2)
Definition of landscape irrigation
1045(1)
Reclaimed water use for landscape irrigation in the United States
1046(1)
Design and Operational Considerations for Reclaimed Water Landscape Irrigation Systems
1047(23)
Water quality requirements
1047(3)
Landscape plant selection
1050(4)
Irrigation systems
1054(1)
Estimation of water needs
1054(11)
Application rate and irrigation schedule
1065(1)
Management of demand-supply balance
1065(1)
Operation and maintenance issues
1066(4)
Golf Course Irrigation with Reclaimed Water
1070(6)
Water quality and agronomic considerations
1070(2)
Reclaimed water supply and storage
1072(3)
Distribution system design considerations
1075(1)
Leaching, drainage, and runoff
1076(1)
Other considerations
1076(1)
Irrigation of Public Areas with Reclaimed Water
1076(4)
Irrigation of public Areas
1078(1)
Reclaimed water treatment and water quality
1079(1)
Conveyance and distribution system
1079(1)
Aesthetics and public acceptance
1079(1)
Operation and maintenance issues
1080(1)
Residential Landscape Irrigation with Reclaimed Water
1080(2)
Residential landscape irrigation systems
1080(1)
Reclaimed water treatment and water quality
1081(1)
Conveyance and distribution system
1081(1)
Operation and maintenance issues
1082(1)
Landscape Irrigation with Decentralized Treatment and Subsurface Irrigation Systems
1082(4)
Subsurface drip irrigation for individual on-site and cluster systems
1082(4)
Irrigation for residential areas
1086(1)
Case Study: Landscape Irrigation in St. Petersburg, Florida
1086(7)
Setting
1087(1)
Water management issues
1087(1)
Implementation
1087(2)
Project Greenleaf and resource management
1089(2)
Landscape irrigation in the city of St. Petersburg
1091(2)
Lessons learned
1093(1)
Case Study: Residential Irrigation in El Dorado Hills, California
1093(10)
Water management issues
1094(1)
Implementation
1094(2)
Education program
1096(1)
Lessons learned
1096(1)
Problems and Discussion Topics
1097(2)
References
1099(4)
Industrial Uses of Reclaimed Water
1103(66)
Working Terminology
1104(1)
Industrial Uses of Reclaimed Water: An Overview
1105(4)
Status of water use for industrial applications in the United States
1105(2)
Water management in industries
1107(1)
Factors affecting the use of reclaimed water for industrial applications
1108(1)
Water Quality Issues for Industrial Uses of Reclaimed Water
1109(23)
General water quality considerations
1110(1)
Corrosion issues
1110(5)
Indexes for assessing effects of reclaimed water quality on reuse systems
1115(11)
Corrosion management options
1126(1)
Scaling issues
1127(2)
Accumulation of dissolved constituents
1129(3)
Cooling Water Systems
1132(9)
System description
1132(1)
Water quality considerations
1132(3)
Design and operational considerations
1135(3)
Management issues
1138(3)
Other Industrial Water Reuse Applications
1141(14)
Boilers
1141(6)
Pulp and paper industry
1147(3)
Textile industry
1150(4)
Other industrial applications
1154(1)
Case Study: Cooling Tower at a Thermal Power Generation Plant, Denver, Colorado
1155(3)
Setting
1155(1)
Water management issues
1156(2)
Implementation
1158(1)
Lessons learned
1158(1)
Case Study: Industrial Uses of Reclaimed Water in West Basin Municipal Water District, California
1158(11)
Setting
1158(1)
Water management issues
1158(1)
Implementation
1159(2)
Lessons learned
1161(1)
Problems and Discussion Topics
1161(4)
References
1165(4)
Urban Nonirrigation Water Reuse Applications
1169(34)
Working Terminology
1170(1)
Urban Water Use and Water Reuse Applications: An Overview
1171(4)
Domestic potable water use in the United States
1171(1)
Commercial water use in the United States
1172(1)
Urban nonirrigation water reuse in the United States
1172(1)
Urban nonirrigation water reuse in other countries
1172(3)
Factors Affecting the Use of Reclaimed Water for Urban Nonirrigation Reuse Applications
1175(4)
Infrastructure issues
1175(1)
Water quality and supply issues
1176(3)
Acceptance issues
1179(1)
Air Conditioning
1179(4)
Description of air conditioning systems
1179(2)
Utilizing reclaimed water for air conditioning systems
1181(1)
Water quality considerations
1181(2)
Management issues
1183(1)
Fire Protection
1183(5)
Types of applications
1186(1)
Water quality considerations
1187(1)
Implementation issues
1187(1)
Management issues
1188(1)
Toilet and Urinal Flushing
1188(7)
Types of applications
1188(1)
Water quality considerations
1188(4)
Implementation issues
1192(1)
Satellite and decentralized systems
1193(1)
Management issues
1193(2)
Commercial Applications
1195(2)
Car and other vehicle washing
1195(1)
Laundries
1196(1)
Public Water Features
1197(1)
Fountains and waterfalls
1197(1)
Reflecting pools
1197(1)
Ponds and lakes in public parks
1198(1)
Road Care and Maintenance
1198(5)
Dust control and street cleaning
1199(1)
Snow melting
1199(1)
Problems and Discussion Topics
1200(1)
References
1201(2)
Environmental and Recreational Uses of Reclaimed Water
1203(42)
Working Terminology
1204(1)
Overview of Environmental and Recreational Uses of Reclaimed Water
1205(5)
Types of environmental and recreational uses
1206(1)
Important factors influencing environmental and recreational uses of reclaimed water
1207(3)
Wetlands
1210(12)
Types of wetlands
1210(3)
Development of wetlands with reclaimed water
1213(3)
Water quality considerations
1216(1)
Operations and maintenance
1216(6)
Stream Flow Augmentation
1222(6)
Aquatic and riparian habitat enhancement with reclaimed water
1222(2)
Recreational uses of streams augmented with reclaimed water
1224(1)
Reclaimed water quality requirements
1224(2)
Stream flow requirements
1226(1)
Operations and maintenance
1226(2)
Ponds and Lakes
1228(3)
Water quality requirements
1228(2)
Operations and maintenance
1230(1)
Other considerations
1230(1)
Other Uses
1231(1)
Snowmaking
1231(1)
Animal viewing parks
1231(1)
Case Study: Arcata, California
1231(3)
Setting
1232(1)
Water management issues
1232(1)
Implementation
1232(1)
Lessons learned
1233(1)
Case Study: San Luis Obispo, California
1234(4)
Setting
1234(1)
Water management issues
1235(1)
Implementation
1235(3)
Lessons learned
1238(1)
Case Study: Santee Lakes, San Diego, California
1238(7)
Setting
1239(1)
Water management issues
1239(1)
Implementation
1239(2)
Lessons learned
1241(1)
Problems and Discussion Topics
1242(1)
References
1242(3)
Groundwater Recharge with Reclaimed Water
1245(58)
Working Terminology
1246(2)
Planned Groundwater Recharge with Reclaimed Water
1248(7)
Advantages of subsurface storage
1248(1)
Types of groundwater recharge
1249(1)
Components of a groundwater recharge system
1250(1)
Technologies for groundwater recharge
1251(2)
Selection of recharge system
1253(1)
Recovery of recharge water
1254(1)
Water Quality Requirements
1255(1)
Water quality challenges for groundwater recharge
1255(1)
Degree of pretreatment required
1255(1)
Recharge Using Surface Spreading Basins
1256(26)
Description
1256(1)
Pretreatment needs
1257(2)
Hydraulic analysis
1259(9)
Operation and maintenance issues
1268(3)
Performance of recharge basins
1271(8)
Pathogens
1279(1)
Examples of full-scale surface spreading facilities
1280(2)
Recharge Using Vadose Zone Injection Wells
1282(5)
Description
1282(1)
Pretreatment needs
1283(1)
Hydraulic analysis
1284(1)
Operation and maintenance issues
1285(1)
Performance of vadose zone injection wells
1286(1)
Examples of operational full-scale vadose zone injection facilities
1286(1)
Recharge Using Direct Injection Wells
1287(6)
Description
1287(1)
Pretreatment needs
1288(1)
Hydraulic analysis
1288(2)
Operation and maintenance issues
1290(1)
Performance of direct injection wells
1291(1)
Examples of full-scale direct aquifer injection facilities
1292(1)
Other Methods Used for Groundwater Recharge
1293(3)
Aquifer storage and recovery (ASR)
1293(1)
Riverbank and dune filtration
1294(1)
Enhanced river recharge
1295(1)
Groundwater recharge using subsurface facilities
1296(1)
Case Study: Orange County Water District Groundwater Replenishment System
1296(7)
Setting
1297(1)
The GWR system
1297(1)
Implementation
1297(1)
Lessons learned
1298(1)
Problems and Discussion Topics
1299(1)
References
1300(3)
Indirect Potable Reuse through Surface Water Augmentation
1303(42)
Working Terminology
1304(1)
Overview of Indirect Potable Reuse
1305(3)
De facto indirect potable reuse
1305(2)
Strategies for indirect potable reuse through surface-water augmentation
1307(1)
Public acceptance
1308(1)
Health and Risk Considerations
1308(1)
Pathogen and trace constituents
1308(1)
System reliability
1309(1)
Use of multiple barriers
1309(1)
Planning for Indirect Potable Reuse
1309(5)
Characteristics of the watershed
1310(1)
Quantity of reclaimed water to be blended
1311(1)
Water and wastewater treatment requirements
1312(1)
Institutional considerations
1312(1)
Cost considerations
1313(1)
Technical Considerations for Surface-Water Augmentation in Lakes and Reservoirs
1314(9)
Characteristics of water supply reservoirs
1314(5)
Modeling of lakes and reservoirs
1319(1)
Strategies for augmenting water supply reservoirs
1320(3)
Case Study: Implementing Indirect Potable Reuse at the Upper Occoquan Sewage Authority
1323(6)
Setting
1323(1)
Water management issues
1323(1)
Description of treatment components
1323(3)
Future treatment process directions
1326(1)
Water quality of the Occoquan Reservoir
1327(1)
Water treatment
1328(1)
Lessons learned
1328(1)
Case Study: City of San Diego Water Repurification Project and Water Reuse Study 2005
1329(5)
Setting
1330(1)
Water management issues
1330(1)
Wastewater treatment mandates
1330(1)
Water Repurification Project
1331(1)
2000 Updated Water Reclamation Master Plan
1332(1)
City of San Diego Water Reuse Study 2005
1332(2)
Lessons learned
1334(1)
Case Study: Singapore's NEWater for Indirect Potable Reuse
1334(6)
Setting
1335(1)
Water management issues
1335(1)
NEWater Factory and NEWater
1335(1)
Implementation
1335(1)
NEWater demonstration plant performance
1336(1)
Project milestones
1336(1)
Lessons learned
1337(3)
Observations on Indirect Potable Reuse
1340(5)
Problems and Discussion Topics
1341(1)
References
1342(3)
Direct Potable Reuse of Reclaimed Water
1345(34)
Working Terminology
1346(1)
Issues in Direct Potable Reuse
1346(2)
Public perception
1347(1)
Health risk concerns
1347(1)
Technological capabilities
1347(1)
Cost considerations
1348(1)
Case Study: Emergency Potable Reuse in Chanute, Kansas
1348(4)
Setting
1348(1)
Water management issues
1349(1)
Implementation
1349(1)
Efficiency of sewage treatment and the overall treatment process
1349(2)
Lessons learned
1351(1)
Importance of the Chanute experience
1352(1)
Case Study: Direct Potable Reuse in Windhoek, Namibia
1352(9)
Setting
1353(1)
Water management issues
1353(1)
Implementation
1354(5)
Lessons learned
1359(2)
Case Study: Direct Potable Reuse Demonstration Project in Denver, Colorado
1361(14)
Setting
1362(1)
Water management issues
1362(1)
Treatment technologies
1362(2)
Water quality testing and studies
1364(7)
Animal health effects testing
1371(1)
Cost estimates on the potable reuse advanced treatment plant
1372(1)
Public information program
1373(1)
Lessons learned
1374(1)
Observations on Direct Potable Reuse
1375(4)
Problems and Discussion Topics
1376(1)
References
1376(3)
Part 5 Implementing Water Reuse
1379(162)
Planning for Water Reclamation and Reuse
1381(54)
Working Terminology
1382(2)
Integrated Water Resources Planning
1384(8)
Integrated water resources planning process
1385(1)
Clarifying the problem
1386(1)
Formulating objectives
1386(1)
Gathering background information
1386(2)
Identifying project alternatives
1388(1)
Evaluating and ranking alternatives
1389(1)
Developing implementation plans
1389(3)
Engineering Issues in Water Reclamation and Reuse Planning
1392(1)
Environmental Assessment and Public Participation
1392(1)
Environmental assessment
1393(1)
Public participation and outreach
1393(1)
Legal and Institutional Aspects of Water Reuse
1393(4)
Water rights law
1393(2)
Water rights and water reuse
1395(2)
Policies and regulations
1397(1)
Institutional coordination
1397(1)
Case Study: Institutional Arrangements at the Walnut Valley Water District, California
1397(2)
Water management issues
1397(1)
Lessons learned
1398(1)
Reclaimed Water Market Assessment
1399(7)
Steps in data collection and analysis
1399(1)
Comparison of water sources
1399(2)
Comparison with costs and revenues
1401(1)
Market assurances
1402(4)
Factors Affecting Monetary Evaluation of Water Reclamation and Reuse
1406(5)
Common weaknesses in water reclamation and reuse planning
1407(1)
Perspectives in project analysis
1408(1)
Planning and design time horizons
1408(1)
Time value of money
1409(1)
Inflation and cost indices
1409(2)
Economic Analysis for Water Reuse
1411(11)
Comparison of alternatives by present worth analysis
1412(1)
Measurement of costs and inflation
1412(1)
Measurement of benefits
1412(2)
Basic assumptions of economic analyses
1414(1)
Replacement costs and salvage values
1415(2)
Computation of economic cost
1417(3)
Project optimization
1420(1)
Influence of subsidies
1421(1)
Financial Analysis
1422(13)
Construction financial plans and revenue programs
1422(1)
Cost allocation
1423(1)
Influence on freshwater rates
1423(1)
Other financial analysis considerations
1423(1)
Sources of revenue and pricing of reclaimed water
1424(1)
Financial feasibility analysis
1425(4)
Sensitivity analysis and conservative assumptions
1429(1)
Problems and Discussion Topics
1430(2)
References
1432(3)
Public Participation and Implementation Issues
1435(106)
Working Terminology
1436(1)
How Is Water Reuse Perceived?
1436(4)
Public attitude about water reuse
1436(4)
Public beliefs about water reuse options
1440(1)
Public Perspectives on Water Reuse
1440(3)
Water quality and public health
1441(1)
Economics
1441(1)
Water supply and growth
1441(1)
Environmental justice/equity issues
1441(1)
The ``Yuck'' factor
1442(1)
Other issues
1442(1)
Public Participation and Outreach
1443(7)
Why involve the public?
1443(1)
Legal mandates for public involvement
1443(1)
Defining the ``public''
1444(1)
Approaches to public involvement
1444(2)
Techniques for public participation and outreach
1446(2)
Some pitfalls in types of public involvement
1448(2)
Case Study: Difficulties Encountered in Redwood City's Landscape Irrigation Project
1450(1)
Setting
1450(1)
Water management issues
1450(1)
Water reclamation project planned
1450(2)
Lessons learned
1452
Case Study: Water Reclamation and Reuse in the City of St. Petersburg, Florida
1451(8)
Setting
1453(1)
Water and wastewater management issues
1453(2)
Development of reclaimed water system
1455(1)
Current status of water reclamation and reuse
1456(1)
Lessons learned
1456(3)
Access to city's proactive water reclamation and reuse information
1459(1)
Observations on Water Reclamation and Reuse
1459(4)
Problems and Discussion Topics
1459(1)
References
1460(3)
Appendixes
Conversion Factors
1463(8)
Physical Properties of Selected Gases and the Composition of Air
1471(4)
Physical Properties of Water
1475(4)
Statistical Analysis of Data
1479(6)
Review of Water Reclamation Activities in the United States and in Selected Countries
1485(24)
Evolution of Nonpotable Reuse Criteria and Groundwater Recharge Regulations in California
1509(14)
Values of the Hantush Function F(a, β) and the Well Function W(u)
1523(2)
Interest Factors and Their Use
1525(4)
Indexes
Name Index
1529(12)
Subject Index
1541
McGraw-Hill authors represent the leading experts in their fields and are dedicated to improving the lives, careers, and interests of readers worldwide





1994





McGraw-Hill authors represent the leading experts in their fields and are dedicated to improving the lives, careers, and interests of readers worldwide