Membrane Based Technologiesfor Environmental Pollution Control explains the application of this green technology while offering a systematic approach for accurately utilizing mathematical modeling methods for optimizing system design and scale-up. The book provides in-depth coverage of membrane processes, materials and modules, along with their potential application in various pollution control systems. Each chapter provides a systematic approach for dynamic model development and solutions. With this reference, researchers and those responsible for the design of pollution control systems will find a source that can maximize their efforts to reduce or prevent pollutants from entering all types of environmental media.
1. Section 1: Introduction - p. xxii 2. Chapter 1. Introduction to membrane materials, processes, and modules - p. 3 3. Chapter 2. Introduction to membrane-based technology applications - p. 71 4. Chapter 3. Introduction to modeling membrane separation processes - p. 101 5. Abstract - p. 101 6. 3.1 Introduction - p. 101 7. 3.2 Modeling microfiltration - p. 101 8. 3.3 Modeling ultrafiltration - p. 104 9. 3.4 Modeling reverse osmosis - p. 110 10. 3.5 Modeling nanofiltration - p. 115 11. 3.6 Modeling membrane distillation - p. 127 12. References - p. 156 13. Chapter 4. Introduction to dynamic modeling of membrane-based technologies - p. 159 14. Abstract - p. 159 15. 4.1 Introduction - p. 159 16. 4.2 Modeling microfiltration-based technology - p. 160 17. 4.3 Modeling ultrafiltration-based technology - p. 163 18. 4.4 Modeling of nanofiltration-based water treatment technology - p. 167 19. 4.5 Modeling of reverse osmosis–based technology - p. 180 20. 4.6 Modeling of integrated forward osmosis–nanofiltration process technology for industrial wastewater treatment - p. 185 21. 4.7 Modeling of forward osmosis–nanofiltration integrated process technology for treating contaminated groundwater - p. 196 22. 4.8 Modeling membrane-integrated hybrid process technology for converting waste to wealth - p. 208 23. 4.9 Modeling of membrane distillation–based technology - p. 222 24. 4.10 Modeling membrane-integrated green technology for glutamic acid production - p. 250 25. 4.11 Modeling membrane-based green technology for lactic acid production for bioplastic - p. 271 26. 4.12 Modeling membrane-integrated green technology to produce acetic acid from dairy waste in a multistage membrane-integrated bioreactor - p. 301 27. Nomenclature - p. 322 28. References - p. 331 29. Section 2: Membrane-Based Technologies for Air Emissions Control - p. 331 30. Chapter 5. Introduction to air emissions reduction and prevention - p. 337 31. Chapter 6. Membrane-based abatement technologies for SOx, NOx, volatile organic compound, humidity - p. 347 32. Chapter 7. Membrane-based technology for carbon dioxide capture and sequestration - p. 359 33. Chapter 8. Membrane-based technology for removal of metallic pollutants - p. 369 34. Section 3: Membrane-Based Technologies for Water/Waste Water - p. 380 35. Chapter 9. Introduction to membrane processes in water treatment - p. 385 36. Chapter 10. Membrane-based technology for groundwater treatment - p. 409 37. Chapter 11. Membrane-based technology for wastewater - p. 461 38. Chapter 12. Membrane-based technology for drinking water - p. 513 39. Chapter 13. Membrane-based technology for desalination - p. 531 40. Section 4: Membrane-Based Green Technologies in Pollution Prevention - p. 546 41. Chapter 14. Introduction to membrane-based green technologies in pollution prevention - p. 549 42. Chapter 15. Case studies on membrane-based green technology for organic acid manufacture - p. 561 43. Chapter 16. Case studies for membrane-based green technology for amino acid manufacture - p. 603 44. Chapter 17. Membrane technology to convert dairy waste into value-added products - p. 649 45. Chapter 18. Membrane-based green technology in biofuel production - p. 703 46. Chapter 19. A case study on membrane-based green technology in abatement of mercury pollution - p. 727 47. Index - p. 737
Membrane Based Technologiesfor Environmental Pollution Control explains the application of this green technology while offering a systematic approach for accurately utilizing mathematical modeling methods for optimizing system design and scale-up. The book provides in-depth coverage of membrane processes, materials and modules, along with their potential application in various pollution control systems. Each chapter provides a systematic approach for dynamic model development and solutions. With this reference, researchers and those responsible for the design of pollution control systems will find a source that can maximize their efforts to reduce or prevent pollutants from entering all types of environmental media.
1. Section 1: Introduction - p. xxii 2. Chapter 1. Introduction to membrane materials, processes, and modules - p. 3 3. Chapter 2. Introduction to membrane-based technology applications - p. 71 4. Chapter 3. Introduction to modeling membrane separation processes - p. 101 5. Abstract - p. 101 6. 3.1 Introduction - p. 101 7. 3.2 Modeling microfiltration - p. 101 8. 3.3 Modeling ultrafiltration - p. 104 9. 3.4 Modeling reverse osmosis - p. 110 10. 3.5 Modeling nanofiltration - p. 115 11. 3.6 Modeling membrane distillation - p. 127 12. References - p. 156 13. Chapter 4. Introduction to dynamic modeling of membrane-based technologies - p. 159 14. Abstract - p. 159 15. 4.1 Introduction - p. 159 16. 4.2 Modeling microfiltration-based technology - p. 160 17. 4.3 Modeling ultrafiltration-based technology - p. 163 18. 4.4 Modeling of nanofiltration-based water treatment technology - p. 167 19. 4.5 Modeling of reverse osmosis–based technology - p. 180 20. 4.6 Modeling of integrated forward osmosis–nanofiltration process technology for industrial wastewater treatment - p. 185 21. 4.7 Modeling of forward osmosis–nanofiltration integrated process technology for treating contaminated groundwater - p. 196 22. 4.8 Modeling membrane-integrated hybrid process technology for converting waste to wealth - p. 208 23. 4.9 Modeling of membrane distillation–based technology - p. 222 24. 4.10 Modeling membrane-integrated green technology for glutamic acid production - p. 250 25. 4.11 Modeling membrane-based green technology for lactic acid production for bioplastic - p. 271 26. 4.12 Modeling membrane-integrated green technology to produce acetic acid from dairy waste in a multistage membrane-integrated bioreactor - p. 301 27. Nomenclature - p. 322 28. References - p. 331 29. Section 2: Membrane-Based Technologies for Air Emissions Control - p. 331 30. Chapter 5. Introduction to air emissions reduction and prevention - p. 337 31. Chapter 6. Membrane-based abatement technologies for SOx, NOx, volatile organic compound, humidity - p. 347 32. Chapter 7. Membrane-based technology for carbon dioxide capture and sequestration - p. 359 33. Chapter 8. Membrane-based technology for removal of metallic pollutants - p. 369 34. Section 3: Membrane-Based Technologies for Water/Waste Water - p. 380 35. Chapter 9. Introduction to membrane processes in water treatment - p. 385 36. Chapter 10. Membrane-based technology for groundwater treatment - p. 409 37. Chapter 11. Membrane-based technology for wastewater - p. 461 38. Chapter 12. Membrane-based technology for drinking water - p. 513 39. Chapter 13. Membrane-based technology for desalination - p. 531 40. Section 4: Membrane-Based Green Technologies in Pollution Prevention - p. 546 41. Chapter 14. Introduction to membrane-based green technologies in pollution prevention - p. 549 42. Chapter 15. Case studies on membrane-based green technology for organic acid manufacture - p. 561 43. Chapter 16. Case studies for membrane-based green technology for amino acid manufacture - p. 603 44. Chapter 17. Membrane technology to convert dairy waste into value-added products - p. 649 45. Chapter 18. Membrane-based green technology in biofuel production - p. 703 46. Chapter 19. A case study on membrane-based green technology in abatement of mercury pollution - p. 727 47. Index - p. 737
