Nanocarbon polymer biocomposites have gained increased attention from both researchers and manufacturers due to the significant improvement in their physico-mechanical, thermal and barrier properties when compared to conventional materials. Their dimensions, biodegradable character, cost-effectiveness, and sustainability are among the main drivers for increasing demand. However, it is difficult to achieve uniform dispersion between the carbon filler and matrix as it easily forms agglomerations. Production of nanocarbon polymer biocomposites with high mechanical and thermal properties is also limited, but there has been rapid progress in processing possibilities to produce nanocomposites based on various biodegradable fillers. Advanced Nanocarbon Polymer Biocomposites: Sustainability Towards Zero Biowaste collects all these novel scientific findings in one place. It discusses in detail their physical, chemical, and electrical properties and presents the latest research findings on nanocarbon polymer biocomposites with filler loadings and their improvement on compatibility. The book will be of great interest for those researchers who are concerned with the production and use of nanocarbon polymer biocomposites as a new innovative advanced material.
1. Chapter one Introduction to nanocarbon biocomposites - p. 1 2. Chapter two Nanocarbon from pine wood sawdust and its biocomposites applications - p. 17 3. Chapter three Current and future development of nanocarbon and its biocomposites production - p. 49 4. Chapter four Biosynthetic and natural nanocarbon production - p. 105 5. Chapter five Aspen wood sawdust and its biocomposites applications - p. 185 6. Chapter six Impact on biocomposites using various types of nanocarbon and polymer - p. 217 7. Chapter seven Roles of simulation model on production of high performance nanocarbon polymer biocomposites - p. 255 8. Chapter eight Montmorillonite-activated nanocarbon from pine wood sawdust and its biocomposites - p. 297 9. Chapter nine Titanium (IV) oxide-activated nanocarbon from pine wood sawdust and its biocomposites - p. 373 10. Chapter ten Iron(III) chloride-activated nanocarbon from pine wood sawdust and its biocomposites - p. 441 11. Chapter eleven Zinc oxide activated nanocarbon from aspen wood sawdust and its biocomposites - p. 501 12. Chapter tweleve Activated montmorillonite nanocarbon from aspen wood sawdust and its biocomposites - p. 551 13. Chapter thirteen Titanium(IV) dioxide-activated nanocarbon from aspen wood sawdust and its biocomposites - p. 625 14. Index - p. 689
Nanocarbon polymer biocomposites have gained increased attention from both researchers and manufacturers due to the significant improvement in their physico-mechanical, thermal and barrier properties when compared to conventional materials. Their dimensions, biodegradable character, cost-effectiveness, and sustainability are among the main drivers for increasing demand. However, it is difficult to achieve uniform dispersion between the carbon filler and matrix as it easily forms agglomerations. Production of nanocarbon polymer biocomposites with high mechanical and thermal properties is also limited, but there has been rapid progress in processing possibilities to produce nanocomposites based on various biodegradable fillers. Advanced Nanocarbon Polymer Biocomposites: Sustainability Towards Zero Biowaste collects all these novel scientific findings in one place. It discusses in detail their physical, chemical, and electrical properties and presents the latest research findings on nanocarbon polymer biocomposites with filler loadings and their improvement on compatibility. The book will be of great interest for those researchers who are concerned with the production and use of nanocarbon polymer biocomposites as a new innovative advanced material.
1. Chapter one Introduction to nanocarbon biocomposites - p. 1 2. Chapter two Nanocarbon from pine wood sawdust and its biocomposites applications - p. 17 3. Chapter three Current and future development of nanocarbon and its biocomposites production - p. 49 4. Chapter four Biosynthetic and natural nanocarbon production - p. 105 5. Chapter five Aspen wood sawdust and its biocomposites applications - p. 185 6. Chapter six Impact on biocomposites using various types of nanocarbon and polymer - p. 217 7. Chapter seven Roles of simulation model on production of high performance nanocarbon polymer biocomposites - p. 255 8. Chapter eight Montmorillonite-activated nanocarbon from pine wood sawdust and its biocomposites - p. 297 9. Chapter nine Titanium (IV) oxide-activated nanocarbon from pine wood sawdust and its biocomposites - p. 373 10. Chapter ten Iron(III) chloride-activated nanocarbon from pine wood sawdust and its biocomposites - p. 441 11. Chapter eleven Zinc oxide activated nanocarbon from aspen wood sawdust and its biocomposites - p. 501 12. Chapter tweleve Activated montmorillonite nanocarbon from aspen wood sawdust and its biocomposites - p. 551 13. Chapter thirteen Titanium(IV) dioxide-activated nanocarbon from aspen wood sawdust and its biocomposites - p. 625 14. Index - p. 689
