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Wastewater Engineering: Treatment and Reuse 4th edition [Minkštas viršelis]

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  • Formatas: Paperback / softback, 1408 pages, aukštis x plotis x storis: 237x189x60 mm, weight: 2635 g
  • Išleidimo metai: 16-May-2002
  • Leidėjas: McGraw Hill Higher Education
  • ISBN-10: 007124140X
  • ISBN-13: 9780071241403
Kitos knygos pagal šią temą:
  • Formatas: Paperback / softback, 1408 pages, aukštis x plotis x storis: 237x189x60 mm, weight: 2635 g
  • Išleidimo metai: 16-May-2002
  • Leidėjas: McGraw Hill Higher Education
  • ISBN-10: 007124140X
  • ISBN-13: 9780071241403
Kitos knygos pagal šią temą:
"Wastewater Engineering: Treatment and Reuse, 4/e" is a thorough update of McGraw-Hill's authoritative book on wastewater treatment. No environmental engineering professional or civil or and environmental engineering major should be without a copy of this book. It describes the technological and regulatory changes that have occurred over the last ten years in this discipline, including: improved techniques for the characterization of wastewaters; improved fundamental understanding of many of the existing unit operations and processes used for wastewater treatment, especially those processes used for the biological removal of nutrients; greater implementation of several newer treatment technologies (e.g., UV disinfection, membrane filtration, and heat drying); greater concern for the long term health and environmental impacts of wastewater constituents; greater emphasis on advanced wastewater treatment and risk assessment for water reuse applications; changes in regulations and the development of new technologies for wastewater disinfection; and new regulations governing the treatment, reuse, and disposal of sludge (biosolids). Greater concern for infrastructure renewal including upgrading the design and performance of wastewater treatment plants. This revision contains a strong focus on advanced wastewater treatment technologies and stresses the reuse aspects of wastewater and biosolids.
Preface xxi
Acknowledgments xxv
Foreword xxvii
1 Wastewater Engineering: An Overview
1(26)
1-1 Terminology
3(1)
1-2 Impact of Regulations on Wastewater Engineering
3(4)
1-3 Health and Environmental Concerns in Wastewater Management
7(2)
1-4 Wastewater Characteristics
9(1)
Improved Analytical Techniques
10(1)
Importance of Improved Wastewater Characterization
10(1)
1-5 Wastewater Treatment
10(10)
Treatment Methods
11(1)
Current Status
12(3)
New Directions and Concerns
15(5)
Future Trends in Wastewater Treatment
20(1)
1-6 Wastewater Reclamation and Reuse
20(2)
Current Status
21(1)
New Directions and Concerns
21(1)
Future Trends in Technology
21(1)
1-7 Biosolids and Residuals Management
22(5)
Current Status
22(1)
New Directions and Concerns
23(1)
Future Trends in Biosolids Processing
23(4)
2 Constituents in Wastewater
27(126)
2-1 Wastewater Constituents
29(1)
Constituents Found in Wastewater
29(1)
Constituents of Concern in Wastewater Treatment
29(1)
2-2 Sampling and Analytical Procedures
29(13)
Sampling
29(5)
Methods of Analysis
34(1)
Units of Measurement for Physical and Chemical Parameters
35(1)
Useful Chemical Relationships
35(7)
2-3 Physical Characteristics
42(15)
Solids
42(6)
Particle Size Distribution
48(3)
Turbidity
51(1)
Color
52(1)
Absorption/Transmittance
52(2)
Temperature
54(2)
Conductivity
56(1)
Density, Specific Gravity, and Specific Weight
56(1)
2-4 Inorganic Nonmetallic Constituents
57(20)
pH
57(2)
Chlorides
59(1)
Alkalinity
59(1)
Nitrogen
60(3)
Phosphorus
63(1)
Sulfur
64(1)
Gases
64(6)
Odors
70(7)
2-5 Metallic Constituents
77(3)
Importance of Metals
77(1)
Sources of Metals
77(1)
Sampling and Methods of Analysis
77(1)
Typical Effluent Discharge Limits for Metals
78(2)
2-6 Aggregate Organic Constituents
80(19)
Measurement of Organic Content
81(1)
Biochemical Oxygen Demand (BOD)
81(12)
Total and Soluble Chemical Oxygen Demand (COD and SCOD)
93(1)
Total and Dissolved Organic Carbon (TOC and DTOC)
94(1)
UV-Absorbing Organic Constituents
95(1)
Theoretical Oxygen Demand (ThOD)
96(1)
Interrelationships between BOD, COD, and TOC
96(2)
Oil and Grease
98(1)
Surfactants
98(1)
2-7 Individual Organic Compounds
99(5)
Priority Pollutants
99(1)
Analysis of Individual Organic Compounds
100(1)
Volatile Organic Compounds (VOCs)
100(2)
Disinfection Byproducts
102(1)
Pesticides and Agricultural Chemicals
102(1)
Emerging Organic Compounds
102(2)
2-8 Biological Characteristics
104(26)
Microorganisms Found in Surface Waters and Wastewater
104(5)
Pathogenic Organisms
109(6)
Use of Indicator Organisms
115(3)
Enumeration and Identification of Bacteria
118(8)
Enumeration and Identification of Viruses
126(3)
Polymerase Chain Reaction (PCR)
129(1)
Development of Microorganisms Typing Techniques
130(1)
New and Reemerging Microorganisms
130(1)
2-9 Toxicity Tests
130(23)
Toxicity Terminology
131(2)
Toxicity Testing
133(1)
Analysis of Toxicity Text Results
134(2)
Application of Toxicity Test Results
136(1)
Identification of Toxicity Components
137(16)
3 Analysis and Selection of Wastewater Flowrates and Constituent Loadings
153(62)
3-1 Components of Wastewater Flows
154(1)
3-2 Wastewater Sources and Flowrates
154(16)
Domestic Wastewater Sources and Flowrates
155(3)
Strategies for Reducing Interior Water Use and Wastewater Flowrates
158(4)
Water Use in Developing Countries
162(1)
Sources and Rates of Industrial (Nondomestic) Wastewater Flows
162(1)
Infiltration/Inflow
163(4)
Exfiltration from Collection Systems
167(1)
Combined System Flowrates
168(2)
3-3 Statistical Analysis of Flowrates, Constituent Concentrations, and Mass Loadings
170(8)
Common Statistical Parameters
170(1)
Graphical Analysis of Data
171(7)
3-4 Analysis of Wastewater Flowrate Data
178(3)
Definition of Terms
178(1)
Variations in Wastewater Flowrates
179(1)
Wastewater Flowrate Factors
180(1)
3-5 Analysis of Constituent Mass Loading Data
181(16)
Wastewater Constituent Concentrations
181(4)
Variations in Constituent Concentrations
185(7)
Flow-Weighted Constituent Concentrations
192(2)
Calculation of Mass Loadings
194(3)
Effect of Mass Loading Variability on Treatment Plant Performance
197(1)
3-6 Selection of Design Flowrates and Mass Loadings
197(18)
Design Flowrates
199(6)
Design Mass Loadings
205(10)
4 Introduction to Process Analysis and Selection
215(96)
4-1 Reactors Used for the Treatment of Wastewater
218(4)
Types of Reactors
218(2)
Application of Reactors
220(1)
Hydraulic Characteristics of Reactors
220(2)
4-2 Mass-Balance Analysis
222(4)
The Mass-Balance Principle
222(2)
Preparation of Mass Balances
224(1)
Application of the Mass-Balance Analysis
224(1)
Steady-State Simplification
225(1)
4-3 Modeling Ideal Flow in Reactors
226(3)
Ideal Flow in Complete-Mix Reactor
226(1)
Ideal Flow in Plug-Flow Reactor
227(2)
4-4 Analysis of Nonideal Flow in Reactors Using Tracers
229(16)
Factors Leading to Nonideal Flow in Reactors
229(2)
Need for Tracer Analysis
231(1)
Types of Tracers
231(1)
Conduct of Tracer Tests
231(2)
Analysis of Tracer Response Curves
233(9)
Practical Interpretation of Tracer Measurements
242(3)
4-5 Modeling Nonideal Flow in Reactors
245(12)
The Distinction between Molecular Diffusion, Turbulent Diffusion, and Dispersion
245(1)
Plug-Flow Reactor with Axial Dispersion
246(6)
Complete-Mix Reactors in Series
252(5)
4-6 Reactions, Reaction Rates, and Reaction Rate Coefficients
257(12)
Types of Reactions
257(1)
Rate of Reaction
258(1)
Reaction Order
259(1)
Types of Rate Expressions
260(1)
Rate Expressions Used in Environmental Modeling
261(1)
Effects of Temperature on Reaction Rate Coefficients
261(3)
Analysis of Reaction Rate Coefficients
264(5)
4-7 Modeling Treatment Process Kinetics
269(14)
Batch Reactor with Reaction
269(1)
Complete-Mix Reactor with Reaction
270(1)
Complete-Mix Reactors in Series with Reaction
271(3)
Ideal Plug-Flow Reactor with Reaction
274(1)
Comparison of Complete-Mix and Plug-Flow Reactors with Reaction
275(2)
Ideal Plug-Flow Reactor with Retarded Reaction
277(2)
Plug-Flow Reactor with Axial Dispersion and Reaction
279(2)
Other Reactor Flow Regimes and Reactor Combinations
281(2)
4-8 Treatment Processes Involving Mass Transfer
283(14)
Basic Principle of Mass Transfer
283(1)
Gas-Liquid Mass Transfer
284(9)
Liquid-Solid Mass Transfer
293(4)
4-9 Introduction to Process Selection
297(14)
Important Factors in Process Selection
297(2)
Process Selection Based on Reaction Kinetics
299(1)
Process Selection Based on Mass Transfer
300(1)
Process Design Based on Loading Criteria
301(1)
Bench Tests and Pilot-Plant Studies
301(1)
Reliability Considerations in Process Selection
301(10)
5 Physical Unit Operations
311(164)
5-1 Screening
315(15)
Classification of Screens
315(1)
Coarse Screens (Bar Racks)
316(6)
Fine Screens
322(4)
Microscreens
326(1)
Screenings Characteristics and Quantities
327(3)
5-2 Coarse Solids Reduction
330(3)
Comminutors
331(1)
Macerators
332(1)
Grinders
333(1)
Design Considerations
333(1)
5-3 Flow Equalization
333(11)
Description/Application
333(2)
Design Considerations
335(9)
5-4 Mixing and Flocculation
344(17)
Continuous Rapid Mixing in Wastewater Treatment
345(1)
Continuous Mixing in Wastewater Treatment
345(2)
Energy Dissipation in Mixing and Flocculation
347(3)
Timescale in Mixing
350(1)
Types of Mixers Used for Rapid Mixing in Wastewater Treatment
350(5)
Types of Mixers Used for Flocculation in Wastewater Treatment
355(4)
Types of Mixers Used for Continuous Mixing in Wastewater Treatment
359(2)
New Developments in Mixing Technology
361(1)
5-5 Gravity Separation Theory
361(23)
Description
362(1)
Particle Settling Theory
363(4)
Discrete Particle Settling
367(5)
Flocculent Particle Settling
372(2)
Inclined Plate and Tube Settling
374(4)
Hindered (Zone) Settling
378(5)
Compression Settling
383(1)
Gravity Separation in an Accelerated Flow Field
383(1)
5-6 Grit Removal
384(12)
Types of Grit Chambers
385(1)
Horizontal-Flow Grit Chambers
385(1)
Aerated Grit Chambers
386(6)
Vortex-Type Grit Chambers
392(1)
Solids (Sludge) Degritting
392(2)
Grit Characteristics, Quantities, Processing, and Disposal
394(2)
5-7 Primary Sedimentation
396(21)
Description
397(8)
Sedimentation Tank Performance
405(1)
Design Considerations
406(5)
Characteristics and Quantities of Solids (Sludge) and Scum
411(1)
High-Rate Clarification
411(1)
Enhanced Particle Flocculation
412(1)
Analysis of Ballasted Particle Flocculation and Settling
412(2)
Process Application
414(3)
5-9 Large-Scale Swirl and Vortex Separators for Combined Wastewater and Stormwater
417(2)
5-10 Flotation
419(6)
Description
419(3)
Design Considerations for Dissolved-Air Flotation Systems
422(3)
5-11 Oxygen Transfer
425(5)
Description
425(1)
Evaluation of Oxygen Transfer Coefficient
425(5)
5-12 Aeration Systems
430(26)
Types of Aeration Systems
430(1)
Diffused-Air Aeration
430(13)
Mechanical Aerators
443(5)
Energy Requirement for Mixing in Aeration Systems
448(1)
Generation and Dissolution of High-Purity Oxygen
448(4)
Postaeration
452(4)
5-13 Removal of Volatile Organic Compounds (VOCs) by Aeration
456(19)
Emission of VOCs
456(1)
Mass Transfer Rates for VOCs
457(2)
Mass Transfer of VOCs from Surface and Diffused-Air Aeration Processes
459(4)
Control Strategies for VOCs
463(12)
6 Chemical Unit Processes
475(70)
6-1 Role of Chemical Unit Processes in Wastewater Treatment
476(2)
Application of Chemical Unit Processes
477(1)
Considerations in the Use of Chemical Unit Processes
478(1)
6-2 Fundamentals of Chemical Coagulation
478(15)
Basic Definitions
479(1)
Nature of Particles in Wastewater
480(1)
Development and Measurement of Surface Charge
481(1)
Particle-Particle Interactions
482(1)
Particle Destabilization with Potential-Determining Ions and Electrolytes
483(2)
Particle Destabilization and Aggregation with Polyelectrolytes
485(1)
Particle Destabilization and Removal with Hydrolyzed Metal Ions
486(7)
6-3 Chemical Precipitation for Improved Plant Performance
493(7)
Chemical Reactions in Wastewater Precipitation Applications
493(4)
Enhanced Removal of Suspended Solids in Primary Sedimentation
497(1)
Independent Physical-Chemical Treatment
498(1)
Estimation of Sludge Quantities from Chemical Precipitation
499(1)
6-4 Chemical Precipitation for Phosphorus Removal
500(14)
Chemistry of Phosphate Precipitation
501(2)
Strategies for Phosphorus Removal
503(2)
Phosphorus Removal Using Metal Salts and Polymers
505(2)
Phosphorus Removal Using Lime
507(1)
Phosphorus Removal with Effluent Filtration
508(1)
Comparison of Chemical Phosphorus Removal Processes
508(1)
Estimation of Sludge Quantities from Phosphorus Precipitation
509(5)
6-5 Chemical Precipitation for Removal of Heavy Metals and Dissolved Inorganic Substances
514(3)
Precipitation Reactions
514(3)
Coprecipitation with Phosphorus
517(1)
6-6 Chemical Oxidation
517(9)
Fundamentals of Chemical Oxidation
517(5)
Applications
522(1)
Chemical Oxidation of BOD and COD
523(1)
Chemical Oxidation of Ammonia
524(2)
6-7 Chemical Neutralization, Scale Control, and Stabilization
526(6)
pH Adjustment
526(2)
Analysis of Scaling Potential
528(4)
Scaling Control
532(1)
6-8 Stabilization
532(13)
Chemical Storage, Feeding, Piping, and Control Systems
532(1)
Chemical Storage and Handling
533(1)
Dry Chemical-Feed Systems
533(3)
Liquid Chemical-Feed Systems
536(1)
Gas Chemical-Feed Systems
537(3)
Initial Chemical Mixing
540(5)
7 Fundamentals of Biological Treatment
545(114)
7-1 Overview of Biological Wastewater Treatment
547(8)
Objectives of Biological Treatment
548(1)
Some Useful Definitions
548(1)
Role of Microorganisms in Wastewater Treatment
548(3)
Types of Biological Processes for Wastewater Treatment
551(4)
7-2 Composition and Classification of Microorganisms
555(8)
Cell Components
555(2)
Cell Composition
557(1)
Environmental Factors
558(1)
Microorganism Identification and Classification
559(2)
Use of Molecular Tools
561(2)
7-3 Introduction to Microbial Metabolism
563(2)
Carbon and Energy Sources for Microbial Growth
563(2)
Nutrient and Growth Factor Requirements
565(1)
7-4 Bacterial Growth and Energetics
565(15)
Bacterial Reproduction
566(1)
Bacterial Growth Patterns in a Batch Reactor
566(1)
Bacterial Growth and Biomass Yield
567(1)
Measuring Biomass Growth
567(1)
Estimating Biomass Yield and Oxygen Requirements from Stoichiometry
568(3)
Estimating Biomass Yield from Bioenergetics
571(7)
Stoichiometry of Biological Reactions
578(1)
Biomass Synthesis Yields for Different Growth Conditions
579(1)
Observed versus Synthesis Yield
580(1)
7-5 Microbial Growth Kinetics
580(8)
Microbial Growth Kinetics Terminology
581(1)
Rate of Utilization of Soluble Substrates
581(1)
Other Rate Expressions for the Utilization of Soluble Substrate
582(1)
Rate of Soluble Substrate Production from Biodegradable Particulate Organic Matter
583(1)
Rate of Biomass Growth with Soluble Substrates
584(1)
Kinetic Coefficients for Substrate Utilization and Biomass Growth
584(1)
Rate of Oxygen Uptake
585(1)
Effects of Temperature
585(1)
Total Volatile Suspended Solids and Active Biomass
586(1)
Net Biomass Yield and Observed Yield
587(1)
7-6 Modeling Suspended Growth Treatment Processes
588(14)
Description of Suspended Growth Treatment Processes
589(1)
Biomass Mass Balance
589(3)
Substrate Mass Balance
592(1)
Mixed Liquor Solids Concentration and Solids Production
592(3)
The Observed Yield
595(1)
Oxygen Requirements
595(3)
Design and Operating Parameters
598(2)
Process Performance and Stability
600(1)
Modeling Plug-Flow Reactors
601(1)
7-7 Substrate Removal in Attached Growth Treatment Processes
602(5)
Substrate Flux in Biofilms
604(1)
Substrate Mass Balance for Biofilm
605(1)
Substrate Flux Limitations
606(1)
7-8 Aerobic Biological Oxidation
607(4)
Process Description
608(1)
Microbiology
608(1)
Stoichiometry of Aerobic Biological Oxidation
609(1)
Growth Kinetics
610(1)
Environmental Factors
610(1)
7-9 Biological Nitrification
611(5)
Process Description
611(1)
Microbiology
611(1)
Stoichiometry of Biological Nitrification
612(2)
Growth Kinetics
614(1)
Environmental Factors
615(1)
7-10 Biological Denitrification
616(7)
Process Description
616(2)
Microbiology
618(1)
Stoichiometry of Biological Denitrification
619(2)
Growth Kinetics
621(2)
Environmental Factors
623(1)
7-11 Biological Phosphorus Removal
623(6)
Process Description
624(1)
Microbiology
625(2)
Stoichiometry of Biological Phosphorus Removal
627(2)
Growth Kinetics
629(1)
Environmental Factors
629(1)
7-12 Anaerobic Fermentation and Oxidation
629(6)
Process Description
630(1)
Microbiology
631(2)
Stoichiometry of Anaerobic Fermentation and Oxidation
633(1)
Growth Kinetics
634(1)
Environmental Factors
635(1)
7-13 Biological Removal of Toxic and Recalcitrant Organic Compounds
635(9)
Development of Biological Treatment Methods
635(2)
Anaerobic Degradation
637(1)
Aerobic Biodegradation
638(1)
Abiotic Losses
638(2)
Modeling Biotic and Abiotic Losses
640(4)
7-14 Biological Removal of Heavy Metals
644(15)
8 Suspended Growth Biological Treatment Processes
659(228)
8-1 Introduction to the Activated-Sludge Process
661(5)
Historical Development
661(1)
Description of Basic Process
661(2)
Evolution of the Activated-Sludge Process
663(1)
Recent Process Developments
664(2)
8-2 Wastewater Characterization
666(10)
Key Wastewater Constituents for Process Design
666(5)
Measurement Methods for Wastewater Characterization
671(5)
Recycle Flows and Loadings
676(1)
8-3 Fundamentals of Process Analysis and Control
676(27)
Process Design Considerations
677(12)
Process Control
689(5)
Operational Problems
694(6)
Activated-Sludge Selector Processes
700(3)
8-4 Processes for BOD Removal and Nitrification
703(46)
Process Design Considerations
704(1)
Complete-Mix Activated-Sludge Process
705(15)
Sequencing Batch Reactor Process
720(14)
Staged Activated-Sludge Process
734(4)
Alternative Processes for BOD Removal and Nitrification
738(2)
Process Design Parameters
740(1)
Process Selection Considerations
740(9)
8-5 Processes for Biological Nitrogen Removal
749(50)
Overview of Biological Nitrogen-Removal Processes
750(1)
Single-Sludge Biological Nitrogen-Removal Processes
750(3)
Process Design Considerations
753(8)
Anoxic/Aerobic Process Design
761(4)
Step-Feed Anoxic/Aerobic Process Design
765(11)
Intermittent Aeration Process Design
776(4)
Postanoxic Endogenous Denitrification
780
Sequencing Batch Reactor Process Analysis
181(603)
Postanoxic Denitrification with an External Carbon Source
784(4)
Nitrogen Removal in Anaerobic Digestion Recycle Streams
788(1)
Alternative Process Configurations for Biological Nitrogen Removal
789(1)
Process Design Parameters
789(1)
Process Selection Considerations
789(10)
8-6 Processes for Biological Phosphorus Removal
799(17)
Biological Phosphorus-Removal Processes
799(2)
Process Design Considerations
801(3)
Process Control
804(1)
Solids Separation Facilities
805(1)
Methods to Improve Phosphorus-Removal Efficiency in BPR Systems
805(2)
Biological Phosphorus-Removal Process Performance
807(2)
Alternative Processes for Biological Phosphorous Removal
809(1)
Process Design Parameters
809(1)
Process Selection Considerations
809(7)
8-7 Selection and Design of Physical Facilities for Activated-Sludge Processes
816(24)
Aeration System
816(1)
Aeration Tanks and Appurtenances
816(4)
Solids Separation
820(13)
Design of Solids Separation Facilities
833(7)
8-8 Suspended Growth Aerated Lagoons
840(14)
Types of Suspended Growth Aerated Lagoons
841(2)
Process Design Considerations for Flow-Through Lagoons
843(10)
Dual-Powered Flow-Through Lagoon System
853(1)
8-9 Biological Treatment with Membrane Separation
854(5)
Overview of Membrane Biological Reactors
854(1)
Process Description
855(2)
Membrane Fouling Control
857(1)
Process Capabilities
858(1)
8-10 Simulation Design Models
859(28)
Model Matrix Formal, Components, and Reactions
860(1)
Model Applications
861(26)
9 Attached Growth and Combined Biological Treatment Processes
887(96)
9-1 Background
888(2)
Evolution of Attached Growth Processes
888(2)
Mass Transfer Limitations
890(1)
9-2 Trickling Filters
890(40)
Trickling Filter Classification and Applications
893(3)
Design of Physical Facilities
896(13)
Process Design Considerations
909(13)
Nitrification Design
922(8)
9-3 Rotating Biological Contactors
930(10)
Process Design Considerations
932(3)
Physical Facilities for RBC Process
935(2)
RBC Process Design
937(3)
9-4 Combined Aerobic Treatment Processes
940(12)
Trickling Filter/Solids Contact and Trickling Filter/Activated-Sludge Processes
940(3)
Activated Biofilter and Biofilter Activated-Sludge Processes
943(1)
Series Trickling Filter-Activated-Sludge Process
944(1)
Design Considerations for Combined Trickling Filter Activated-Sludge Systems
944(8)
9-5 Activated Sludge with Fixed-Film Packing
952(5)
Processes with Internal Suspended Packing for Attached Growth
952(3)
Processes with Internal Fixed Packing for Attached Growth
955(2)
9-6 Submerged Attached Growth Processes
957(5)
Downflow Submerged Attached Growth Processes
957(2)
Upflow Submerged Attached Growth Processes
959(2)
Fluidized-Bed Bioreactors (FBBR)
961(1)
9-7 Attached Growth Denitrification Processes
962(21)
Downflow Packed-Bed Postanoxic Denitrification Processes
962(5)
Upflow Packed-Bed Postanoxic Denitrification Reactors
967(1)
Fluidized-Bed Reactors for Postanoxic Denitrification
967(2)
Submerged Rotating Biological Contactors
969(1)
Attached Growth Preanoxic Denitrification Processes
969(14)
10 Anaerobic Suspended and Attached Growth Biological Treatment Processes
983(52)
10-1 The Rationale for Anaerobic Treatment
984(2)
Advantages of Anaerobic Treatment Processes
984(2)
Disadvantages of Anaerobic Treatment Processes
986(1)
Summary Assessment
986(1)
10-2 General Design Considerations for Anaerobic Treatment Processes
986(10)
Characteristics of the Wastewater
987(4)
Solids Retention Time
991(1)
Expected Methane Gas Production
992(2)
Treatment Efficiency Needed
994(1)
Sulfide Production
994(1)
Ammonia Toxicity
995(1)
Liquid-Solids Separation
996(1)
10-3 Anaerobic Suspended Growth Processes
996(9)
Complete-Mix Process
997(1)
Anaerobic Contact Process
997(2)
Anaerobic Sequencing Batch Reactor
999(1)
Design of Anaerobic Suspended Growth Processes
999(6)
10-4 Anaerobic Sludge Blanket Processes
1005(13)
Upflow Sludge Blanket Reactor Process
1005(2)
Design Considerations for UASB Process
1007(9)
Anaerobic Baffled Reactor
1016(1)
Anaerobic Migrating Blanket Reactor
1017(1)
10-5 Attached Growth Anaerobic Processes
1018(6)
Upflow Packed-Bed Attached Growth Reactor
1019(1)
Upflow Attached Growth Anaerobic Expanded-Bed Reactor
1020(1)
Attached Growth Anaerobic Fluidized-Bed Reactor
1020(2)
Downflow Attached Growth Processes
1022(2)
10-6 Other Anaerobic Treatment Processes
1024(11)
Covered Anaerobic Lagoon Process
1024(2)
Membrane Separation Anaerobic Treatment Process
1026(9)
11 Advanced Wastewater Treatment
1035(182)
11-1 Need for Advanced Wastewater Treatment
1037(1)
11-2 Technologies Used for Advanced Treatment
1038(6)
Residual Constituents in Treated Wastewater
1038(1)
Classification of Technologies
1038(1)
Removal of Organic and Inorganic Colloidal and Suspended Solids
1038(2)
Removal of Dissolved Organic Constituents
1040(1)
Removal of Dissolved Inorganic Constituents
1041(2)
Removal of Biological Constituents
1043(1)
Process Selection and Performance Data
1044(1)
11-3 Introduction to Depth Filtration
1044(25)
Description of the Filtration Process
1044(6)
Filter Hydraulics
1050(7)
Analysis of the Filtration Process
1057(12)
11-4 Selection and Design Considerations for Depth Filters
1069(29)
Available Filtration Technologies
1069(9)
Performance of Different Types of Filler Technologies
1078(2)
Issues Related to Design and Operation of Treatment Facilities
1080(1)
Importance of Influent Wastewater Characteristics
1081(1)
Selection of Filtration Technology
1081(3)
Filler-Bed Characteristics
1084(5)
Filter Flowrate Control
1089(2)
Filter Backwashing Systems
1091(2)
Filter Appurtenances
1093(1)
Filter Instrumentation and Control Systems
1093(3)
Effluent Filtration with Chemical Addition
1096(1)
Filter Problems
1096(1)
Need for Pilot-Plant Studies
1096(2)
11-5 Surface Filtration
1098(6)
Discfilter®
1098(2)
Cloth-Media Disk Filter®
1100(3)
Performance Characteristics
1103(1)
11-6 Membrane Filtration Processes
1104(34)
Membrane Process Terminology
1104(1)
Membrane Process Classification
1104(4)
Membrane Configurations
1108(3)
Membrane Operation
1111(6)
Membrane Fouling
1117(4)
Application of Membranes
1121(10)
Electrodialysis
1131(3)
Pilot Studies for Membrane Applications
1134(1)
Disposal of Concentrated Waste Streams
1135(3)
11-7 Adsorption
1138(24)
Types of Adsorbents
1138(2)
Fundamentals of Adsorption
1140(6)
Activated Carbon Adsorption Kinetics
1146(3)
Activated Carbon Treatment Process Applications
1149(3)
Analysis and Design of Granular Activated Carbon Contactor
1152(4)
Small-Scale Column Tests
1156(3)
Analysis and Design of Powdered Activated Carbon Contactor
1159(2)
Activated Sludge with Powdered Activated Carbon Treatment
1161(1)
11-8 Gas Stripping
1162(18)
Analysis of Gas Stripping
1163(11)
Design of Stripping Towers
1174(4)
Application
1178(2)
11-9 Ion Exchange
1180(16)
Ion-Exchange Materials
1181(1)
Typical Ion-Exchange Reactions
1182(1)
Exchange Capacity of Ion-Exchange Resins
1183(2)
Ion-Exchange Chemistry
1185(4)
Application of Ion Exchange
1189(7)
Operational Considerations
1196(1)
11-10 Advanced Oxidation Processes
1196(6)
Theory of Advanced Oxidation
1196(1)
Technologies Used to Produce Hydroxyl Radicals (HO)
1197(3)
Applications
1200(2)
Operational Problems
1202(1)
11-11 Distillation
1202(15)
Distillation Processes
1202(2)
Performance Expectations in Reclamation Applications
1204(1)
Operating Problems
1205(1)
Disposal of Concentrated Waste
1205(12)
12 Disinfection Processes
1217(128)
12-1 Regulatory Requirements for Wastewater Disinfection
1219(1)
12-2 Disinfection Theory
1219(12)
Characteristics of an Ideal Disinfectant
1220(1)
Disinfection Methods and Means
1220(3)
Mechanisms of Disinfectants
1223(1)
Factors Influencing the Action of Disinfectants
1223(8)
12-3 Disinfection with Chlorine
1231(27)
Characteristics of Chlorine Compounds
1231(3)
Chemistry of Chlorine Compounds
1234(3)
Breakpoint Reaction with Chlorine
1237(4)
Measurement and Reporting of Disinfection Process Variables
1241(1)
Germicidal Efficiency of Chlorine and Various Chlorine Compounds
1242(2)
Factors That Affect Disinfection Efficiency of Chlorine
1244(4)
Modeling the Chlorine Disinfection Process
1248(4)
Review of the CRt Concept
1252(1)
Required Chlorine Dosage for Disinfection
1252(3)
Formation and Control of Disinfection Byproducts
1255(2)
Environmental Impacts
1257(1)
12-4 Disinfection with Chlorine Dioxide
1258(3)
Characteristics of Chlorine Dioxide
1258(1)
Chlorine Dioxide Chemistry
1259(1)
Effectiveness of Chlorine Dioxide as a Disinfectant
1259(1)
Byproduct Formation and Control
1260(1)
Environmental Impacts
1261(1)
12-5 Dechlorination
1261(3)
Need for Dechlorination
1261(1)
Dechlorination of Wastewater Treated with Chlorine and Chlorine Compounds
1261(3)
Dechlorination of Chlorine with Sulfur Dioxide
1264(1)
12-6 Design of Chlorination and Dechlorination Facilities
1264(22)
Sizing Chlorination Facilities
1264(2)
Application Flow Diagrams
1266(3)
Dosage Control
1269(1)
Injection and Initial Mixing
1270(1)
Chlorine Contact Basin Design
1270(13)
Chlorine Residual Measurement
1283(1)
Chlorine Storage Facilities
1284(1)
Chlorine Containment Facilities
1284(2)
Dechlorination Facilities
1286(1)
12-7 Disinfection with Ozone
1286(9)
Ozone Properties
1287(1)
Ozone Chemistry
1287(1)
Ozone Disinfection Systems Components
1288(2)
Effectiveness of Ozone as a Disinfectant
1290(1)
Modeling the Ozone Disinfection Process
1290(3)
Required Ozone Dosages for Disinfection
1293(1)
Byproduct Formation and Control
1293(2)
Environmental Impacts of Using Ozone
1295(1)
Other Benefits of Using Ozone
1295(1)
12-8 Other Chemical Disinfection Methods
1295(3)
Peracetic Acid
1295(2)
Ozone/Hydrogen Peroxide (Peroxone)
1297(1)
Combined Chemical Disinfection Processes
1297(1)
12-9 Ultraviolet (UV) Radiation Disinfection
1298(31)
Source of UV Radiation
1298(3)
UV Disinfection System Components and Configurations
1301(3)
Germicidal Effectiveness of UV Radiation
1304(5)
Modeling the UV Disinfection Process
1309(2)
Estimating UV Dose
1311(5)
Ultraviolet Disinfection Guidelines
1316(8)
Selection and Sizing of a UV Disinfection System
1324(2)
Troubleshooting UV Disinfection Systems
1326(3)
Environmental Impacts of UV Radiation Disinfection
1329(1)
12-10 Comparison of Alternative Disinfection Technologies
1329(16)
Germicidal Effectiveness
1330(1)
Advantages and Disadvantages
1330(15)
13 Water Reuse
1345(102)
13-1 Wastewater Reclamation and Reuse: An Introduction
1347(9)
Definition of Terms
1347(1)
The Role of Water Recycling in the Hydrologic Cycle
1347(2)
Historical Perspective
1349(2)
Wastewater Reuse Applications
1351(3)
Need for Water Reuse
1354(2)
13-2 Public Health and Environmental Issues in Water Reuse
1356(10)
Constituents in Reclaimed Water
1356(2)
Public Health Issues
1358(1)
Environmental Issues
1358(1)
The Evolution of Wetter Reuse Guidelines in the United States
1358(4)
Water Reclamation Criteria in Other Countries
1362(3)
What Level of Treatment Is Necessary?
1365(1)
13-3 Introduction to Risk Assessment
1366(10)
Risk Assessment
1366(6)
Risk Management
1372(1)
Ecological Risk Assessment
1373(1)
Risk Assessment for Water Reuse
1373(1)
Limitations in Risk Assessment for Water Reuse
1374(2)
13-4 Water Reclamation Technologies
1376(15)
Constituent Removal Technologies
1376(1)
Conventional Wastewater Treatment Process Flow Diagrams for
Water Reclamation
1377(2)
Advanced Wastewater Treatment Process Flow Diagrams
1379(1)
Performance Expectations for Water Reclamation Processes
1379(8)
Predicting the Performance of Treatment Process Combinations
1387(4)
Treatment Process Reliability
1391(1)
13-5 Storage of Reclaimed Water
1391(10)
Need for Storage
1392(1)
Meeting Water Quality Discharge Requirements
1392(1)
Operation of Storage Reservoirs
1393(4)
Problems Involved with Storage of Reclaimed Water
1397(2)
Management Strategies for Open and Enclosed Reservoirs
1399(2)
13-6 Agricultural and Landscape Irrigation
1401(11)
Evaluation of Irrigation Water Quality
1401(9)
Other Problems
1410(2)
13-7 Industrial Water Reuse
1412(10)
Industrial Water Use
1413(1)
Cooling Tower Makeup Water
1413(1)
Water and Salt Balances in Cooling Tower
1414(2)
Common Water Quality Problems in Cooling Tower Systems
1416(6)
13-8 Groundwater Recharge with Reclaimed Water
1422(7)
Groundwater Recharge Methods
1423(3)
Pretreatment Requirements for Groundwater Recharge
1426(1)
Fate of Contaminants in Groundwater
1427(2)
Groundwater Recharge Guidelines
1429(1)
13-9 Planned Indirect and Direct Potable Water Reuse
1429(4)
Planned Indirect Potable Water Reuse
1431(1)
Planned Direct Potable Water Reuse
1432(1)
Planned Potable Water Reuse Criteria
1432(1)
What Is the Ultimate Water Reuse Goal?
1433(1)
13-10 Planning for Wastewater Reclamation and Reuse
1433(14)
Planning Basis
1433(1)
Market Assessment
1434(1)
Monetary Analyses
1435(1)
Other Planning Factors
1436(1)
Planning Report
1437(1)
Epilogue on Water Reuse Issues
1438(9)
14 Treatment, Reuse, and Disposal of Solids and Biosolids
1447(186)
14-1 Solids Sources, Characteristics, and Quantities
1451(9)
Sources
1451(1)
Characteristics
1451(3)
Quantities
1454(6)
14-2 Regulations for the Reuse and Disposal of Solids in the United States
1460(5)
Land Application
1461(1)
Surface Disposal
1461(1)
Pathogen and Vector Attraction Reduction
1461(3)
Incineration
1464(1)
14-3 Solids Processing Flow Diagrams
1465(1)
14-4 Sludge and Scum Pumping
1465(17)
Pumps
1465(10)
Headloss Determination
1475(6)
Sludge Piping
1481(1)
14-5 Preliminary Operations
1482(6)
Grinding
1482(1)
Screening
1482(2)
Degritting
1484(1)
Blending
1484(1)
Storage
1485(3)
14-6 Thickening
1488(11)
Application
1488(1)
Description and Design of Thickeners
1489(10)
14-7 Introduction to Stabilization
1499(1)
14-8 Alkaline Stabilization
1500(5)
Chemical Reactions in Lime Stabilization
1500(2)
Heat Generation
1502(1)
Application of Alkaline Stabilization Processes
1502(3)
14-9 Anaerobic Digestion
1505(28)
Process Fundamentals
1506(1)
Description of Mesophilic Anaerobic Digestion Processes
1507(2)
Process Design for Mesophilic Anaerobic Digestion
1509(7)
Selection of Tank Design and Mixing System
1516(6)
Methods for Enhancing Solids Loading and Digester Performance
1522(1)
Gas Production, Collection, and Use
1523(2)
Digester Heating
1525(4)
Thermophilic Anaerobic Digestion
1529(2)
Two-Phased Anaerobic Digestion
1531(2)
14-10 Aerobic Digestion
1533(13)
Process Description
1534(1)
Conventional Air Aerobic Digestion
1535(6)
Dual Digestion
1541(1)
Autothermal Thermophilic Aerobic Digestion (ATAD)
1541(4)
High-Purity Oxygen Digestion
1545(1)
14-11 Composting
1546(8)
Process Microbiology
1557
Process Description
1547(3)
Design Considerations
1550(1)
Cocomposting with Municipal Solid Wastes
1551(3)
Public Health and Environmental Issues
1554(1)
14-12 Conditioning
1554(4)
Chemical Conditioning
1555(2)
Other Conditioning Methods
1557(1)
14-13 Dewatering
1558(21)
Centrifugation
1559(4)
Belt-Filter Press
1563(2)
Filter Presses
1565(5)
Sludge Drying Beds
1570(8)
Reed Beds
1578(1)
Lagoons
1578(1)
14-14 Heat Drying
1579(7)
Heat-Transfer Methods
1579(1)
Process Description
1580(4)
Product Characteristics
1584(1)
Product Transport and Storage
1585(1)
Fire and Explosion Hazards
1585(1)
Air Pollution and Odor Control
1585(1)
14-15 Incineration
1586(6)
Fundamental Aspects of Complete Combustion
1587(1)
Multiple-Hearth Incineration
1588(2)
Fluidized-Bed Incineration
1590(2)
Coincineration with Municipal Solid Waste
1592(1)
Air-Pollution Control
1592(1)
14-16 Solids Mass Balances
1592(16)
Preparation of Solids Mass Balances
1593(1)
Performance Data for Solids-Processing Facilities
1593(1)
Impact of Return Flows and Loads
1594(14)
14-17 Application of Biosolids to Land
1608(13)
Site Evaluation and Selection
1609(1)
U.S. EPA Regulations for Beneficial Use and Disposal of Biosolids
1610(3)
Design Loading Rates
1613(4)
Application Methods
1617(2)
Application to Dedicated Lands
1619(2)
Landfilling
1621(1)
14-18 Biosolids Conveyance and Storage
1621(12)
Conveyance Methods
1622(1)
Storage
1622(11)
15 Issues Related to Treatment-Plant Performance
1633(96)
15-1 Need for Upgrading Treatment-Plant Performance
1634(2)
Meeting Current and Future Needs
1634(1)
Meeting More Stringent Discharge Requirements
1635(1)
Discharge Limits for Wastewater Treatment Plants
1635(1)
15-2 Treatment Process Reliability and Selection of Design Values
1636(14)
Variability in Wastewater Treatment
1636(4)
Selection of Process Design Parameters to Meet Discharge Permit Limits
1640(7)
Performance of Combined Processes
1647(2)
Development of Input-Output Data
1649(1)
15-3 Odor Management
1650(27)
Types of Odors
1650(1)
Sources of Odors
1650(4)
Movement of Odors from Wastewater Treatment Facilities
1654(1)
Strategies for Odor Management
1654(4)
Odor-Treatment Methods
1658(10)
Selection and Design of Odor-Control Facilities
1668(1)
Design Considerations for Chemical Scrubbers
1668(2)
Design Considerations for Odor-Control Biofilters
1670(7)
15-4 Introduction to Automatic Process Control
1677(26)
Process Disturbances
1678(1)
Control Systems for Wastewater Treatment Plants
1679(3)
Control Algorithms
1682(8)
Process Control Diagrams
1690(3)
Description of Automatic Control System Elements
1693(10)
15-5 Energy Efficiency in Wastewater Treatment
1703(5)
Overview of the Use of Electricity in Wastewater Treatment
1704(1)
Measures for Improving Energy Efficiency
1705(3)
15-6 Upgrading Wastewater Treatment-Plant Performance
1708(13)
Process Optimization
1708(4)
Upgrading Existing Wastewater Treatment Facilities
1712(9)
15-7 Important Design Considerations for New Wastewater Treatment Plants
1721(8)
Process Design Considerations for Liquid Streams
1721(1)
Process Design Considerations for Solids Processing
1721(2)
Odor Control
1723(6)
Appendixes
A Conversion Factors
1729(8)
B Physical Properties of Selected Gases and the Composition of Air
1737(4)
C Physical Properties of Water
1741(4)
D Solubility of Dissolved Oxygen in Water as a Function of Salinity and Barometric Pressure
1745(4)
E MPN Tables and Their Use
1749(4)
F Carbonate Equilibrium
1753(4)
G Moody Diagrams for the Analysis of Flow in Pipes
1757(2)
Indexes
Name Index
1759(12)
Subject Index
1771
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1994