Rubber composites are manufactured by blending rubber with other materials such as fibers, fillers, and other polymers. Recycling, processing, properties, and design aspects are all significant factors that need to be considered when working with these materials.
Rubber Composites: Recycling, Processing, Properties, Design and Applications provides an extensive review of recent advances in this important research field.
The chapters cover the processing, structure, properties, and applications of rubber-based composites. These are versatile materials and with the appropriate design planning, manufacturing process, and properties, these materials can be tailored to meet specific industrial requirements with enhanced performance and sustainability.
This book will be a valuable reference source for academic and industrial researchers, materials scientists and engineers, polymer chemists, and industrial manufacturers working in the research and development of rubber-based composites and their related products.
1. 1 : Introduction to rubber - p. Page xv 2. 2 : Preparation and properties of halloysite nanotubes-filled epoxidized natural rubber composites - p. Page 9 3. 3 : Surface treatment and processing of thermoplastic elastomer-filled natural filler composites - p. Page 26 4. 4 : Ferrite-filled rubber composites: characterization and properties - p. Page 72 5. 5 : Characterization and properties of sepiolite-filled natural rubber composites - p. Page 129 6. 6 : Biodegradation behaviour of polylactic acid/rubber/kenaf biocomposites via soil burial - p. Page 146 7. 7 : Enhancing the properties of natural rubber composites with cellulose blends - p. Page 165 8. 8 : Comparison of unfilled and filled natural rubber latex/unvulcanized silicone rubber/graphene nanoplatelets conductive material - p. Page 183 9. 9 : The effect of coconut shell powder on the mechanical properties of polylactic acid/silicone rubber blend - p. Page 197 10. 10 : The influence of coated-carbon nanofiber (cCNF) in styrene-butadiene rubber (SBR) for potential application in automotive components - p. Page 211 11. 11 : Rubber composite design for high-voltage insulation in electric vehicles - p. Page 221 12. 12 : Rubber composites for automotive mounting design - p. Page 235 13. 13 : Application of lignin in rubber composites and future trends - p. Page 252 14. 14 : Nitrile rubber-based composites - p. Page 280 15. 15 : Rubber composites with functional natural rubber/carboxyl group blends - p. Page 301 16. 16 : Recycling medical rubber waste: developing new fillers for rubber composites - p. Page 324 17. 17 : Conclusions and future prospect - p. Page 363 18. Index - p. Page 380
Rubber composites are manufactured by blending rubber with other materials such as fibers, fillers, and other polymers. Recycling, processing, properties, and design aspects are all significant factors that need to be considered when working with these materials.
Rubber Composites: Recycling, Processing, Properties, Design and Applications provides an extensive review of recent advances in this important research field.
The chapters cover the processing, structure, properties, and applications of rubber-based composites. These are versatile materials and with the appropriate design planning, manufacturing process, and properties, these materials can be tailored to meet specific industrial requirements with enhanced performance and sustainability.
This book will be a valuable reference source for academic and industrial researchers, materials scientists and engineers, polymer chemists, and industrial manufacturers working in the research and development of rubber-based composites and their related products.
1. 1 : Introduction to rubber - p. Page xv 2. 2 : Preparation and properties of halloysite nanotubes-filled epoxidized natural rubber composites - p. Page 9 3. 3 : Surface treatment and processing of thermoplastic elastomer-filled natural filler composites - p. Page 26 4. 4 : Ferrite-filled rubber composites: characterization and properties - p. Page 72 5. 5 : Characterization and properties of sepiolite-filled natural rubber composites - p. Page 129 6. 6 : Biodegradation behaviour of polylactic acid/rubber/kenaf biocomposites via soil burial - p. Page 146 7. 7 : Enhancing the properties of natural rubber composites with cellulose blends - p. Page 165 8. 8 : Comparison of unfilled and filled natural rubber latex/unvulcanized silicone rubber/graphene nanoplatelets conductive material - p. Page 183 9. 9 : The effect of coconut shell powder on the mechanical properties of polylactic acid/silicone rubber blend - p. Page 197 10. 10 : The influence of coated-carbon nanofiber (cCNF) in styrene-butadiene rubber (SBR) for potential application in automotive components - p. Page 211 11. 11 : Rubber composite design for high-voltage insulation in electric vehicles - p. Page 221 12. 12 : Rubber composites for automotive mounting design - p. Page 235 13. 13 : Application of lignin in rubber composites and future trends - p. Page 252 14. 14 : Nitrile rubber-based composites - p. Page 280 15. 15 : Rubber composites with functional natural rubber/carboxyl group blends - p. Page 301 16. 16 : Recycling medical rubber waste: developing new fillers for rubber composites - p. Page 324 17. 17 : Conclusions and future prospect - p. Page 363 18. Index - p. Page 380
