Resource Recovery in Industrial Waste Waters provides a holistic approach for discovering and harnessing valuable resources from industrial wastewaters, the cutting-edge technologies required, and a discussion on the new findings. In three volumes, the books stress the importance of contaminated waters' remediation, including surface waters, municipal or industrial wastewaters and treating these waters as a new source of nutrients, minerals and energy. It introduces polluted waters as new and sustainable sources, rather than seeing wastewaters as only a source of hazardous organic and inorganic matters.
Sections discuss wastewater treatment and recovery and contribute to generate a sustainable approach of wastewater by providing the main advantages and disadvantages of both wastewater/polluted water treatment and recovery.
1. Resource Recovery in Industrial Waste Waters - p. ii 2. Cover - p. ii 3. Title Page - p. ii 4. Copyright - p. iv 5. Table of Contents - p. iv 6. List of contributors - p. v 7. 1 Membranes for industrial wastewater recovery and reuse - p. 1 8. 2 Application of membrane-integrated systems for industrial waste effluent treatment - p. 23 9. 3 Zero liquid discharge strategies for industrial wastewater reuse and resource recovery - p. 45 10. 4 Overview of techniques used for removal and recovery of Cr(VI) from industrial wastewaters - p. 67 11. 5 Insight into the techniques used for the removal and recovery of nickel from industrial wastewaters - p. 91 12. 6 Bioleaching of metals from various waste resources - p. 115 13. 7 Graphene and graphene derivatives for wastewater treatment - p. 143 14. 8 Enriching chemistry with greener pathways for selective removal of chromium(VI) from wastewater - p. 165 15. 9 Facile green-assisted synthesis of Ca-doped Fe2O3 nanoparticles for efficient degradation of toxic pollutants from industrial wastewater and reuse for plant growth assessment - p. 189 16. 10 Implementation of zero liquid discharge policy in industrial water management - p. 199 17. 11 Resource recovery from dye wastewaters using nanofiltration systems - p. 229 18. 12 Graphene oxide-based metal oxide nanomaterials: synthesis and application toward adsorptive removal of Cr(VI) ions from water - p. 253 19. 13 Recovery of valuable metals from electroplating effluent - p. 273 20. 14 Application of bioleaching for metal recovery - p. 295 21. 15 Energy recovery from industrial wastewaters - p. 319 22. 16 Zero liquid discharge and minimal liquid discharge strategies for sustainable saline wastewater (brine) management and valorization - p. 337 23. 17 Microbial fuel cell in industrial wastewater: treatment processes and resource recovery - p. 353 24. 18 Removal and recovery of vanadium from industrial wastewaters - p. 365 25. 19 Resource recovery from distillery wastewater - p. 387 26. 20 Microbial fuel cells as an energy-efficient alternative for pollution degradation - p. 407 27. 21 Advanced membrane technology for removal of ammonia from industrial wastewater - p. 421 28. 22 Photocatalytic desalination techniques for industrial wastewater reuse - p. 441 29. 23 Vanadium in industrial wastewater: a study on methods implicated for their removal and recovery - p. 463 30. 24 Recovering industrial wastewater: application of electrodialysis reversal approach - p. 483 31. 25 Recovery of phosphorus from industrial wastewater through struvite crystallization - p. 499 32. 26 Biohydrogen recovery from industrial wastewater - p. 521 33. 27 Recovery of critical raw materials from battery industry process and wastewaters - p. 545 34. 28 Removal and recovery of Hg(II) from industrial wastewater - p. 581 35. 29 Extraction of clean energy from industrial wastewater using bioelectrochemical process - p. 601 36. 30 Simultaneous treatment of industrial wastewater and resource recovery using microbial fuel cell - p. 621 37. 31 Electrochemical recovery of metals from industrial wastewaters - p. 639 38. 32 Reclamation of nutrients from mixed wastewater through struvite crystallization techniques - p. 655 39. 33 Conventional and emerging desalination technologies for the treatment of saline wastewater: performance, reuse, and challenges - p. 669 40. 34 Recent advances in membrane technology for the recovery and reuse of valuable resources - p. 695 41. 35 Importance of Brassica juncea for the successful cleaning of nanoparticle-contaminated sites - p. 721 42. Index - p. 735 43. Index - Continued - p. 750 44. Index - Continued - p. 763
Resource Recovery in Industrial Waste Waters provides a holistic approach for discovering and harnessing valuable resources from industrial wastewaters, the cutting-edge technologies required, and a discussion on the new findings. In three volumes, the books stress the importance of contaminated waters' remediation, including surface waters, municipal or industrial wastewaters and treating these waters as a new source of nutrients, minerals and energy. It introduces polluted waters as new and sustainable sources, rather than seeing wastewaters as only a source of hazardous organic and inorganic matters.
Sections discuss wastewater treatment and recovery and contribute to generate a sustainable approach of wastewater by providing the main advantages and disadvantages of both wastewater/polluted water treatment and recovery.
1. Resource Recovery in Industrial Waste Waters - p. ii 2. Cover - p. ii 3. Title Page - p. ii 4. Copyright - p. iv 5. Table of Contents - p. iv 6. List of contributors - p. v 7. 1 Membranes for industrial wastewater recovery and reuse - p. 1 8. 2 Application of membrane-integrated systems for industrial waste effluent treatment - p. 23 9. 3 Zero liquid discharge strategies for industrial wastewater reuse and resource recovery - p. 45 10. 4 Overview of techniques used for removal and recovery of Cr(VI) from industrial wastewaters - p. 67 11. 5 Insight into the techniques used for the removal and recovery of nickel from industrial wastewaters - p. 91 12. 6 Bioleaching of metals from various waste resources - p. 115 13. 7 Graphene and graphene derivatives for wastewater treatment - p. 143 14. 8 Enriching chemistry with greener pathways for selective removal of chromium(VI) from wastewater - p. 165 15. 9 Facile green-assisted synthesis of Ca-doped Fe2O3 nanoparticles for efficient degradation of toxic pollutants from industrial wastewater and reuse for plant growth assessment - p. 189 16. 10 Implementation of zero liquid discharge policy in industrial water management - p. 199 17. 11 Resource recovery from dye wastewaters using nanofiltration systems - p. 229 18. 12 Graphene oxide-based metal oxide nanomaterials: synthesis and application toward adsorptive removal of Cr(VI) ions from water - p. 253 19. 13 Recovery of valuable metals from electroplating effluent - p. 273 20. 14 Application of bioleaching for metal recovery - p. 295 21. 15 Energy recovery from industrial wastewaters - p. 319 22. 16 Zero liquid discharge and minimal liquid discharge strategies for sustainable saline wastewater (brine) management and valorization - p. 337 23. 17 Microbial fuel cell in industrial wastewater: treatment processes and resource recovery - p. 353 24. 18 Removal and recovery of vanadium from industrial wastewaters - p. 365 25. 19 Resource recovery from distillery wastewater - p. 387 26. 20 Microbial fuel cells as an energy-efficient alternative for pollution degradation - p. 407 27. 21 Advanced membrane technology for removal of ammonia from industrial wastewater - p. 421 28. 22 Photocatalytic desalination techniques for industrial wastewater reuse - p. 441 29. 23 Vanadium in industrial wastewater: a study on methods implicated for their removal and recovery - p. 463 30. 24 Recovering industrial wastewater: application of electrodialysis reversal approach - p. 483 31. 25 Recovery of phosphorus from industrial wastewater through struvite crystallization - p. 499 32. 26 Biohydrogen recovery from industrial wastewater - p. 521 33. 27 Recovery of critical raw materials from battery industry process and wastewaters - p. 545 34. 28 Removal and recovery of Hg(II) from industrial wastewater - p. 581 35. 29 Extraction of clean energy from industrial wastewater using bioelectrochemical process - p. 601 36. 30 Simultaneous treatment of industrial wastewater and resource recovery using microbial fuel cell - p. 621 37. 31 Electrochemical recovery of metals from industrial wastewaters - p. 639 38. 32 Reclamation of nutrients from mixed wastewater through struvite crystallization techniques - p. 655 39. 33 Conventional and emerging desalination technologies for the treatment of saline wastewater: performance, reuse, and challenges - p. 669 40. 34 Recent advances in membrane technology for the recovery and reuse of valuable resources - p. 695 41. 35 Importance of Brassica juncea for the successful cleaning of nanoparticle-contaminated sites - p. 721 42. Index - p. 735 43. Index - Continued - p. 750 44. Index - Continued - p. 763
