Bio-Refinery of Industrial Effluents for a Sustainable Circular Economy provides a combined approach between environmental engineering, which involves the improvement of the natural environment or remediation of polluted sites. In addition, it discusses bioprocess engineering involving the development of processes for the manufacture of products from biological materials to produce a valuable bioproduct.
This book covers knowledge on sources, impacts, and applications of industrial effluents that could potentially be used as feedstock for the IEB with examples of applied research that demonstrates the relationship between the effluents, biorefinery, treatment and bioproduct recovery. Materials that can be produced from IEB and the treatment processes for such are considered.
1. Biorefinery of Industrial Effluents for a Sustainable Circular Economy - p. Page i 2. Cover - p. Page i 3. Title page - p. Page ii 4. Table of Contents - p. Page iii 5. Copyright - p. Page iii 6. Contents - p. Page vi 7. List of contributors - p. Page vi 8. List of Illustrations - p. Page x 9. List of Tables - p. Page xi 10. Chapter 1 : Sources, generation, and properties of industrial effluents for utilization in a biorefinery process - p. Page xi 11. Chapter 2 : Environmental impact and management of industrial effluents - p. Page 8 12. Chapter 3 : Cleaner and sustainable circular economy approaches for bio-based product recovery from industrial effluents in a biorefinery - p. Page 21 13. Chapter 4 : Agro-industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 41 14. Chapter 5 : Food industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 62 15. Chapter 6 : Algae-based industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 76 16. Chapter 7 : Municipal effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 90 17. Chapter 8 : Aquaculture industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 106 18. Chapter 9 : Palm oil mill effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 124 19. Chapter 10 : Recent trends in biorefineries using pulp and paper effluents for bioenergy and value-added products formation - p. Page 139 20. Chapter 11 : Sugarcane industry effluents: generation, characteristics, impacts and applications for biobased product recovery in a biorefinery - p. Page 154 21. Chapter 12 : Sources, properties, and sustainable valorization technologies of agro-industrial effluents for bioproducts recovery in a biorefinery - p. Page 166 22. Chapter 13 : Microalgal and cyanobacterial strains for nutrients recovery and bio-based products synthesis from agro-industrial effluent - p. Page 184 23. Chapter 14 : Physicochemical processes for industrial effluents treatment in a biorefinery - p. Page 202 24. Chapter 15 : Role of membrane science in the sustainable development of an algal based biorefinery for industrial effluents treatment - p. Page 218 25. Chapter 16 : Biorefinery waste-based nanocomposites for industrial effluents treatment using physicochemical techniques - p. Page 232 26. Chapter 17 : Biological processes for industrial effluent treatment in a biorefinery - p. Page 246 27. Chapter 18 : Recent advances in the sustainable application of biomass-based cellulose nanocrystals for industrial effluents treatment and resource recovery in biorefineries: modeling and optimization - p. Page 269 28. Chapter 19 : Recent progress in the application of hybrid processes for industrial effluents treatment in biorefineries - p. Page 283 29. Chapter 20 : Techno-economic and lifecycle assessment of industrial effluent treatment in biorefineries - p. Page 293 30. Chapter 21 : Valorization glycerol produced as a by-product in the biodiesel industry: an insight into technical and economic studies - p. Page 305 31. Chapter 22 : Ecological impact assessment of hazardous components of industrial effluents and their sustainable management in accordance with the principle of circular economy: an in-depth view - p. Page 315 32. Chapter 23 : Current policy and regulatory challenges, opportunities, and future perspectives of industrial effluents treatment in biorefineries - p. Page 325 33. Chapter 24 : Native microalgae consortia: a potential contribution to a biorefinery based on liquid circular inputs - p. Page 339 34. Chapter 25 : Comparative study of industrial effluents for biorefinery conversion - p. Page 353 35. Index - p. Page 368
Bio-Refinery of Industrial Effluents for a Sustainable Circular Economy provides a combined approach between environmental engineering, which involves the improvement of the natural environment or remediation of polluted sites. In addition, it discusses bioprocess engineering involving the development of processes for the manufacture of products from biological materials to produce a valuable bioproduct.
This book covers knowledge on sources, impacts, and applications of industrial effluents that could potentially be used as feedstock for the IEB with examples of applied research that demonstrates the relationship between the effluents, biorefinery, treatment and bioproduct recovery. Materials that can be produced from IEB and the treatment processes for such are considered.
1. Biorefinery of Industrial Effluents for a Sustainable Circular Economy - p. Page i 2. Cover - p. Page i 3. Title page - p. Page ii 4. Table of Contents - p. Page iii 5. Copyright - p. Page iii 6. Contents - p. Page vi 7. List of contributors - p. Page vi 8. List of Illustrations - p. Page x 9. List of Tables - p. Page xi 10. Chapter 1 : Sources, generation, and properties of industrial effluents for utilization in a biorefinery process - p. Page xi 11. Chapter 2 : Environmental impact and management of industrial effluents - p. Page 8 12. Chapter 3 : Cleaner and sustainable circular economy approaches for bio-based product recovery from industrial effluents in a biorefinery - p. Page 21 13. Chapter 4 : Agro-industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 41 14. Chapter 5 : Food industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 62 15. Chapter 6 : Algae-based industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 76 16. Chapter 7 : Municipal effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 90 17. Chapter 8 : Aquaculture industrial effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 106 18. Chapter 9 : Palm oil mill effluents: generation, characteristics, impacts, and applications for bio-based product recovery in a biorefinery - p. Page 124 19. Chapter 10 : Recent trends in biorefineries using pulp and paper effluents for bioenergy and value-added products formation - p. Page 139 20. Chapter 11 : Sugarcane industry effluents: generation, characteristics, impacts and applications for biobased product recovery in a biorefinery - p. Page 154 21. Chapter 12 : Sources, properties, and sustainable valorization technologies of agro-industrial effluents for bioproducts recovery in a biorefinery - p. Page 166 22. Chapter 13 : Microalgal and cyanobacterial strains for nutrients recovery and bio-based products synthesis from agro-industrial effluent - p. Page 184 23. Chapter 14 : Physicochemical processes for industrial effluents treatment in a biorefinery - p. Page 202 24. Chapter 15 : Role of membrane science in the sustainable development of an algal based biorefinery for industrial effluents treatment - p. Page 218 25. Chapter 16 : Biorefinery waste-based nanocomposites for industrial effluents treatment using physicochemical techniques - p. Page 232 26. Chapter 17 : Biological processes for industrial effluent treatment in a biorefinery - p. Page 246 27. Chapter 18 : Recent advances in the sustainable application of biomass-based cellulose nanocrystals for industrial effluents treatment and resource recovery in biorefineries: modeling and optimization - p. Page 269 28. Chapter 19 : Recent progress in the application of hybrid processes for industrial effluents treatment in biorefineries - p. Page 283 29. Chapter 20 : Techno-economic and lifecycle assessment of industrial effluent treatment in biorefineries - p. Page 293 30. Chapter 21 : Valorization glycerol produced as a by-product in the biodiesel industry: an insight into technical and economic studies - p. Page 305 31. Chapter 22 : Ecological impact assessment of hazardous components of industrial effluents and their sustainable management in accordance with the principle of circular economy: an in-depth view - p. Page 315 32. Chapter 23 : Current policy and regulatory challenges, opportunities, and future perspectives of industrial effluents treatment in biorefineries - p. Page 325 33. Chapter 24 : Native microalgae consortia: a potential contribution to a biorefinery based on liquid circular inputs - p. Page 339 34. Chapter 25 : Comparative study of industrial effluents for biorefinery conversion - p. Page 353 35. Index - p. Page 368
