Bioremediation and Bioeconomy: A Circular Economy Approach provides a common platform for scientists from various backgrounds to find sustainable solutions to environmental issues, including remediation of emerging pollutants, usage of contaminated land and wastewater for bioproducts such as natural fibers, biocomposites, and fuels, to boost the economy. The need for transitioning to a sustainable use of natural resources is now more evident than ever as industrialization and pollution are global phenomena.
Biodiversity is being used as raw material for environmental decontamination, and this field has grown phenomenally in recent years, having emerged less than 3 decades ago. On the other hand, the volume of contaminated substrates (water, soil, and air) is increasing due to anthropogenic and technogenic sources of organic and inorganic contaminants. Bioremediation and Bioeconomy: A Circular Economy Approach will address the bottlenecks and solutions to the existing limitations in field scale and the relevant techniques.
1. Bioremediation and Bioeconomy - p. i 2. Cover - p. i 3. Title Page - p. ii 4. Copyright - p. iii 5. Table of Contents - p. iv 6. Dedication - p. v 7. Contributors - p. xiii 8. Preface - p. xvii 9. Acknowledgments - p. xix 10. Chapter 1 Bioremediation, bioeconomy, circular economy, and circular bioeconomy—Strategies for sustainability - p. 3 11. Chapter 2 Holistic approach to bioremediation-derived biomass and biorefineries for accelerating bioeconomy, circular bioeconomy, and carbon neutrality - p. 33 12. Chapter 3 Production of biodiesel feedstock from trace element-contaminated lands in Ukraine - p. 59 13. Chapter 4 Aromatic, medicinal, and energy plantations on metalliferous/contaminated soil—Bioremediation and bioeconomy - p. 81 14. Chapter 5 Prosopis juliflora (Sw) DC: Potential for bioremediation and bio-based economy - p. 99 15. Chapter 6 Giant reed (Arundo donax L.)—A multi-purpose crop bridging phytoremediation with sustainable bioeconomy - p. 119 16. Chapter 7 Phytomass gasification for energy recovery from aquatic plants - p. 147 17. Chapter 8 Jatropha curcas L. cultivation on contaminated and marginal land—Exploring the potential for circular economy, environmental protection, and sustainability - p. 187 18. Chapter 9 Potential of ornamental plants for phytoremediation and income generation - p. 211 19. Chapter 10 Native trees on abandoned mine land: From environmental remediation to bioeconomy - p. 257 20. Chapter 11 Rice plants for cleanup of trace elements—Bioeconomic perspectives - p. 289 21. Chapter 12 Duckweeds: Bioremediation of surface wastewater and biorefinery - p. 311 22. Chapter 13 Cultivation of sweet sorghum on heavy metal-contaminated soils by phytoremediation approach for production of bioethanol - p. 337 23. Chapter 14 Bioremediation and bioeconomy potential of sunflower (Helianthus annuus L.) - p. 367 24. Chapter 15 Chrysopogon zizanioides (vetiver grass) for abandoned mine restoration and phytoremediation: Cogeneration of economical products - p. 385 25. Chapter 16 Mulberry (Morus spp.) for phytostabilization of coal mine overburden: Co-generation of economic products - p. 419 26. Chapter 17 Utilization of contaminated lands for cultivation of dye producing plants for dyestuff - p. 433 27. Chapter 18 Bioeconomy and circular economy approaches for the greening of urban wastelands: Focus on biodiversity to achieve sustainability - p. 475 28. Chapter 19 Biological recultivation of fly ash dumps strengthening bioeconomy and circular economy in the ural region of Russia - p. 499 29. Chapter 20 Phycoremediation and business prospects - p. 531 30. Chapter 21 Algae-based bioremediation bioproducts and biofuels for biobusiness - p. 583 31. Chapter 22 Building circular bio-based economy through sustainable waste management - p. 639 32. Chapter 23 Bioremediation in Brazil: Recent evolutions and remaining challenges to boost up the bioeconomy - p. 669 33. Chapter 24 Phytomanagement of polycyclic aromatic hydrocarbon and heavy metal contaminated sites in Assam, North Eastern India, for boosting the bioeconomy - p. 705 34. Chapter 25 From preservation of aquatic ecosystems to ecocatalysis® - p. 733 35. Chapter 26 Synthetic biology: An emerging field for developing economies - p. 767 36. Index - p. 789
Bioremediation and Bioeconomy: A Circular Economy Approach provides a common platform for scientists from various backgrounds to find sustainable solutions to environmental issues, including remediation of emerging pollutants, usage of contaminated land and wastewater for bioproducts such as natural fibers, biocomposites, and fuels, to boost the economy. The need for transitioning to a sustainable use of natural resources is now more evident than ever as industrialization and pollution are global phenomena.
Biodiversity is being used as raw material for environmental decontamination, and this field has grown phenomenally in recent years, having emerged less than 3 decades ago. On the other hand, the volume of contaminated substrates (water, soil, and air) is increasing due to anthropogenic and technogenic sources of organic and inorganic contaminants. Bioremediation and Bioeconomy: A Circular Economy Approach will address the bottlenecks and solutions to the existing limitations in field scale and the relevant techniques.
1. Bioremediation and Bioeconomy - p. i 2. Cover - p. i 3. Title Page - p. ii 4. Copyright - p. iii 5. Table of Contents - p. iv 6. Dedication - p. v 7. Contributors - p. xiii 8. Preface - p. xvii 9. Acknowledgments - p. xix 10. Chapter 1 Bioremediation, bioeconomy, circular economy, and circular bioeconomy—Strategies for sustainability - p. 3 11. Chapter 2 Holistic approach to bioremediation-derived biomass and biorefineries for accelerating bioeconomy, circular bioeconomy, and carbon neutrality - p. 33 12. Chapter 3 Production of biodiesel feedstock from trace element-contaminated lands in Ukraine - p. 59 13. Chapter 4 Aromatic, medicinal, and energy plantations on metalliferous/contaminated soil—Bioremediation and bioeconomy - p. 81 14. Chapter 5 Prosopis juliflora (Sw) DC: Potential for bioremediation and bio-based economy - p. 99 15. Chapter 6 Giant reed (Arundo donax L.)—A multi-purpose crop bridging phytoremediation with sustainable bioeconomy - p. 119 16. Chapter 7 Phytomass gasification for energy recovery from aquatic plants - p. 147 17. Chapter 8 Jatropha curcas L. cultivation on contaminated and marginal land—Exploring the potential for circular economy, environmental protection, and sustainability - p. 187 18. Chapter 9 Potential of ornamental plants for phytoremediation and income generation - p. 211 19. Chapter 10 Native trees on abandoned mine land: From environmental remediation to bioeconomy - p. 257 20. Chapter 11 Rice plants for cleanup of trace elements—Bioeconomic perspectives - p. 289 21. Chapter 12 Duckweeds: Bioremediation of surface wastewater and biorefinery - p. 311 22. Chapter 13 Cultivation of sweet sorghum on heavy metal-contaminated soils by phytoremediation approach for production of bioethanol - p. 337 23. Chapter 14 Bioremediation and bioeconomy potential of sunflower (Helianthus annuus L.) - p. 367 24. Chapter 15 Chrysopogon zizanioides (vetiver grass) for abandoned mine restoration and phytoremediation: Cogeneration of economical products - p. 385 25. Chapter 16 Mulberry (Morus spp.) for phytostabilization of coal mine overburden: Co-generation of economic products - p. 419 26. Chapter 17 Utilization of contaminated lands for cultivation of dye producing plants for dyestuff - p. 433 27. Chapter 18 Bioeconomy and circular economy approaches for the greening of urban wastelands: Focus on biodiversity to achieve sustainability - p. 475 28. Chapter 19 Biological recultivation of fly ash dumps strengthening bioeconomy and circular economy in the ural region of Russia - p. 499 29. Chapter 20 Phycoremediation and business prospects - p. 531 30. Chapter 21 Algae-based bioremediation bioproducts and biofuels for biobusiness - p. 583 31. Chapter 22 Building circular bio-based economy through sustainable waste management - p. 639 32. Chapter 23 Bioremediation in Brazil: Recent evolutions and remaining challenges to boost up the bioeconomy - p. 669 33. Chapter 24 Phytomanagement of polycyclic aromatic hydrocarbon and heavy metal contaminated sites in Assam, North Eastern India, for boosting the bioeconomy - p. 705 34. Chapter 25 From preservation of aquatic ecosystems to ecocatalysis® - p. 733 35. Chapter 26 Synthetic biology: An emerging field for developing economies - p. 767 36. Index - p. 789
