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Front Cover |
1 |
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Fundamentals of Salt Water Desalination |
4 |
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Copyright Page |
5 |
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Contents |
14 |
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Preface |
8 |
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Symbols |
12 |
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Chapter 1. Introduction |
22 |
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Objectives |
23 |
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1.1. Resources and Need for Water Desalination |
23 |
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1.2. Composition of Seawater |
27 |
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1.3. Historical Background |
28 |
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1.4. Definition and Classification of Industrial Desalination Processes |
32 |
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1.5. Market Status for Desalination Processes |
36 |
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References |
37 |
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Chapter 2. Single Effect Evaporation |
40 |
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Objectives |
41 |
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2.1. Single Effect Evaporation |
41 |
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2.2. Evaporators |
64 |
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Review Questions |
68 |
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Problems |
68 |
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Chapter 3. Single Effect Evaporation – Vapor Compression |
70 |
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Objectives |
71 |
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3.1. Single Effect Thermal Vapor Compression |
71 |
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3.2. Single Effect Mechanical Vapor Compression |
102 |
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3.3. Single Effect Absorption Vapor Compression |
131 |
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3.4. Single Effect Adsorption Vapor Compression |
150 |
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References |
166 |
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Problems |
166 |
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Chapter 4. Multiple Effect Evaporation |
168 |
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Objectives |
169 |
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4.1. Developments in Multiple Effect Evaporation |
169 |
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4.2. Forward Feed Multiple Effect Evaporation |
173 |
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4.3. Parallel Feed Multiple Effect Evaporation |
209 |
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References |
229 |
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Chapter 5. Multiple Effect Evaporation – Vapor Compression |
232 |
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Objectives |
233 |
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5.1. Parallel Feed Multiple Effect Evaporation with Thermal and Mechanical Vapor Compression |
233 |
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5.2. Forward Feed Multiple Effect Evaporation with Thermal Vapor Compression |
264 |
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5.3. Forward Feed Multiple Effect Evaporation with Mechanical Vapor Compression |
281 |
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5.4. Forward Feed Multiple Effect Evaporation with Absorption Vapor Compression |
284 |
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5.5. Forward Feed Multiple Effect Evaporation with Adsorption Vapor Compression |
287 |
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5.6. Summary |
290 |
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Chapter 6. Multi Stage Flash Distillation |
292 |
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Objectives |
293 |
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6.1. Developments in MSF |
293 |
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6.2. MSF Flashing Stage |
297 |
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6.3. MSF Process Synthesis |
303 |
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6.4. Once Through MSF |
343 |
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6.5. Brine Circulation MSF |
366 |
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6.6. MSF with Thermal Vapor Compression |
406 |
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6.7. MSF with Brine Mixing |
418 |
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Problems |
426 |
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Chapter 7. Reverse Osmosis |
430 |
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Objectives |
431 |
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7.1. Historical Background |
431 |
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7.2. Elements of Membrane Separation |
433 |
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7.3. Performance Parameters |
435 |
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7.4. RO Membranes |
437 |
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7.5. Membrane Modules |
439 |
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7.6. RO Systems |
442 |
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7.7. RO Models and System Variables |
445 |
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7.8. Case Studies |
450 |
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Problems |
456 |
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Chapter 8. Reverse Osmosis Feed Treatment, Biofouling, and Membrane Cleaning |
460 |
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Objectives |
461 |
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8.1. Nee for Pretreatment Processes in RO |
461 |
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8.2. Testing Methods |
462 |
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8.3. Suspended Solids and Silt Reduction |
463 |
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8.4. Fouling and Scale Control |
464 |
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8.5. Biofouling in RO |
467 |
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8.6. Membrane Cleaning |
470 |
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8.7. Membrane Storage |
472 |
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References |
473 |
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Chapter 9. Associated Processes |
474 |
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Objectives |
475 |
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9.1. Venting of Non-Condensable Gases |
475 |
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9.2. Steam Jet Ejectors |
479 |
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9.3. Wire Mesh Demisters |
496 |
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9.4. Interstage Brine Transfer Devices |
512 |
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References |
518 |
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Chapter 10. Economic Analysis of Desalination Processes |
524 |
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Objectives |
525 |
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10.1. Factors Affecting Product Cost |
525 |
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10.2. Elements of Economic Calculations |
525 |
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10.3. Cost Evaluation |
530 |
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10.4. Case Studies |
535 |
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10.5. Summary |
542 |
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References |
544 |
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Problems |
544 |
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Appendix A. Thermodynamic Properties |
546 |
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A.l. Seawater Density |
547 |
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A.2. Seawater Specific Heat at Constant Pressure |
549 |
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A.3. Seawater Dynamic Viscosity |
551 |
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A.4. Seawater Thermal Conductivity |
553 |
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A.5. Enthalpy of Saturated Liquid Water |
555 |
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A.6. Enthalpy of Saturated Water Vapor |
557 |
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A.7. Latent Heat of Water Evaporation |
559 |
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A.8. Entropy of Saturated Liquid Water |
561 |
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A.9. Entropy of Saturated Water Vapor |
563 |
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A. 10. Saturation Pressure of Water Vapor |
565 |
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A. 11. Saturation Temperature of Water Vapor |
567 |
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A. 12. Specific Volume of Saturated Water Vapor |
569 |
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A. 13. Specific Volume of Saturated Liquid Water |
571 |
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A. 14. Dynamic Viscosity of Saturated Liquid Water |
573 |
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A. 15. Dynamic Viscosity of Saturated Water Vapor |
575 |
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A. 16. Surface Tension of Saturated Liquid Water |
577 |
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A. 17. Enthalpy of LiBr Water Solution |
579 |
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A. 18. Boiling Temperature of LiBr Water Solution |
582 |
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Appendix B. Thermodynamic Losses |
586 |
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B.l. Boiling Point Elevation |
587 |
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B.2. Non-Equilibrium Allowance in MSF |
589 |
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B.3. Non-Equilibrium Allowance in MEE |
591 |
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B.4. Demister Pressure Drop |
593 |
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B.5. Pressure Drop in Connecting Lines |
595 |
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B.6. Gravitational Pressure Drop |
598 |
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B.7. Acceleration Pressure Drop |
601 |
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References |
604 |
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Appendix C. Heat Transfer Coefficients |
606 |
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C. 1. Falling Film on the Tube Outside Surface |
607 |
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C.2. Vapor Condensation Inside Tubes |
609 |
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C.3. Seawater Flowing Inside Tubes |
611 |
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C.4. Vapor Condensation on the Outside Surface of Tubes |
613 |
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C.5. Water Flow in Plate Heat Exchanger |
615 |
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C.6. Condenser and Evaporator Overall Heat Transfer Coefficient |
617 |
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References |
618 |
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Appendix D. Computer Package |
620 |
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D.l. Main Window |
621 |
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D.2. Physical Properties |
627 |
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D.3. Single Effect Evaporation (SEE) |
630 |
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D.4. Single Effect Evaporation – Vapor Compression |
640 |
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D.5. Parallel Feed Multiple Effect Evaporation |
662 |
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D.6. Parallel Feed Multiple Effect Evaporation – Vapor Compression |
666 |
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D.7. Forward Feed Multiple Effect Evaporation |
673 |
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D.8. Multistage Flash Desalination |
681 |
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Index |
689 |
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