Biobased Materials in Carbon Capture Applications confronts the urgent challenge of reducing carbon dioxide (CO2) emissions through innovative, sustainable solutions. This reference book explores the use of biobased materials—derived from renewable biomass—in CO2 capture, storage, and utilization. By addressing climate change and greenhouse gas mitigation, the text offers a comprehensive overview of current technologies and emerging advancements in biobased CO2 capture. Readers are guided from fundamental principles to practical applications, emphasizing the environmental and economic importance of adopting sustainable alternatives to traditional carbon capture methods. This resource is crafted for researchers, engineers, policymakers, and industry professionals.
Beyond its technical depth, the book delves into performance evaluation methods, hybrid CO2 capture systems, and presents real-world case studies that demonstrate scalability and practical feasibility. It also examines environmental and regulatory implications, investigates future trends, and concludes with actionable recommendations for implementing biobased materials in CO2 emission reduction strategies.
1. Chapter 1. Introduction to CO2 capture technology - p. 1 2. Chapter 2. Fundamentals of biobased materials - p. 29 3. Chapter 3. Types of biobased materials for CO2 capture - p. 59 4. Chapter 4. Innovative biobased materials in carbon capture technologies - p. 93 5. Chapter 5. Applications of bio-based materials in CO2 capture - p. 137 6. Chapter 6. Exploring bio-based materials for effective CO2 mitigation - p. 165 7. Chapter 7. Performance evaluation and characterization techniques - p. 191 8. Chapter 8. Hybrid CO2 capture systems - p. 225 9. Chapter 9. Microbial electrosynthesis for carbon capture: harnessing cyanobacteria for sustainable bioproducts and climate mitigation - p. 241 10. Chapter 10. Exploring CO2 capture through computational avenues - p. 275 11. Chapter 11. Case-studies and practical applications of bio-based materials for CO2 capture - p. 301 12. Chapter 12. Scalability, economic and technological feasibility of bio-based material - p. 319 13. Chapter 13. A snippet of environmental footprint, regulatory, and policy considerations of CO2 capture applications employing bio-based materials - p. 335 14. Chapter 14. Future perspectives and emerging trends in CO2 capture - p. 357 15. Chapter 15. Conclusions and recommendations - p. 389 16. Index - p. 403
Biobased Materials in Carbon Capture Applications confronts the urgent challenge of reducing carbon dioxide (CO2) emissions through innovative, sustainable solutions. This reference book explores the use of biobased materials—derived from renewable biomass—in CO2 capture, storage, and utilization. By addressing climate change and greenhouse gas mitigation, the text offers a comprehensive overview of current technologies and emerging advancements in biobased CO2 capture. Readers are guided from fundamental principles to practical applications, emphasizing the environmental and economic importance of adopting sustainable alternatives to traditional carbon capture methods. This resource is crafted for researchers, engineers, policymakers, and industry professionals.
Beyond its technical depth, the book delves into performance evaluation methods, hybrid CO2 capture systems, and presents real-world case studies that demonstrate scalability and practical feasibility. It also examines environmental and regulatory implications, investigates future trends, and concludes with actionable recommendations for implementing biobased materials in CO2 emission reduction strategies.
1. Chapter 1. Introduction to CO2 capture technology - p. 1 2. Chapter 2. Fundamentals of biobased materials - p. 29 3. Chapter 3. Types of biobased materials for CO2 capture - p. 59 4. Chapter 4. Innovative biobased materials in carbon capture technologies - p. 93 5. Chapter 5. Applications of bio-based materials in CO2 capture - p. 137 6. Chapter 6. Exploring bio-based materials for effective CO2 mitigation - p. 165 7. Chapter 7. Performance evaluation and characterization techniques - p. 191 8. Chapter 8. Hybrid CO2 capture systems - p. 225 9. Chapter 9. Microbial electrosynthesis for carbon capture: harnessing cyanobacteria for sustainable bioproducts and climate mitigation - p. 241 10. Chapter 10. Exploring CO2 capture through computational avenues - p. 275 11. Chapter 11. Case-studies and practical applications of bio-based materials for CO2 capture - p. 301 12. Chapter 12. Scalability, economic and technological feasibility of bio-based material - p. 319 13. Chapter 13. A snippet of environmental footprint, regulatory, and policy considerations of CO2 capture applications employing bio-based materials - p. 335 14. Chapter 14. Future perspectives and emerging trends in CO2 capture - p. 357 15. Chapter 15. Conclusions and recommendations - p. 389 16. Index - p. 403
