Biocomposites: Design and Mechanical Performance
- 1st Edition - August 26, 2015
- Latest edition
- Editors: Manjusri Misra, Jitendra Kumar Pandey, Amar Mohanty
- Language: English
Biocomposites: Design and Mechanical Performance describes recent research on cost-effective ways to improve the mechanical toughness and durability of biocomposites, while als… Read more
Biocomposites: Design and Mechanical Performance
describes recent research on cost-effective ways to improve the mechanical toughness and durability of biocomposites, while also reducing their weight.Beginning with an introduction to commercially competitive natural fiber-based composites, chapters then move on to explore the mechanical properties of a wide range of biocomposite materials, including polylactic, polyethylene, polycarbonate, oil palm, natural fiber epoxy, polyhydroxyalkanoate, polyvinyl acetate, polyurethane, starch, flax, poly (propylene carbonate)-based biocomposites, and biocomposites from biodegradable polymer blends, natural fibers, and green plastics, giving the reader a deep understanding of the potential of these materials.
- Describes recent research to improve the mechanical properties and performance of a wide range of biocomposite materials
- Explores the mechanical properties of a wide range of biocomposite materials, including polylactic, polyethylene, polycarbonate, oil palm, natural fiber epoxy, polyhydroxyalkanoate, polyvinyl acetate, and polyurethane
- Evaluates the potential of biocomposites as substitutes for petroleum-based plastics in industries such as packaging, electronic, automotive, aerospace and construction
- Includes contributions from leading experts in this field
R&D managers and product designers in packaging, electronic, automotive, aerospace and construction industries; postgraduates and researchers with an interest in biocomposites
- Preface
- Foreword
- 1: Commercial potential and competitiveness of natural fiber composites
- Abstract
- Acknowledgments
- 1.1 Introduction
- 1.2 Classification and composition of natural fibers
- 1.3 Advantages and attributes of natural fibers
- 1.4 Challenges encountered in adapting natural fibers for composite applications
- 1.5 Supply chain management
- 1.6 Commercial competitiveness, market development, and growth scenario
- 1.7 Future prospects and developments
- 2: Mechanical performance of polylactic based formulations
- Abstract
- 2.1 Introduction
- 2.2 Challenges in the application of PLA
- 2.3 Current approaches to improve PLA mechanical properties
- 2.4 Mechanical properties of PLA at high temperature
- 3: Mechanical performance of polyhydroxyalkanoate (PHA)-based biocomposites
- Abstract
- 3.1 Introduction
- 3.2 Mechanical properties of PHB—biodegradable polymer composites
- 3.3 Mechanical properties of PHB, PHBV/natural fiber-reinforced composites
- 3.4 Mechanical properties of PHB and PHBV nanocomposites
- 3.5 Concluding remarks and future trends
- 4: Mechanical performance of starch-based biocomposites
- Abstract
- Acknowledgements
- 4.1 Introduction
- 4.2 Structures of native starch
- 4.3 From native starch to plasticised starch
- 4.4 Processing for starch-based materials
- 4.5 Mechanical properties of starch-based materials
- 4.6 Mechanical properties of starch-based macrobiocomposites
- 4.7 Nanofillers for starch-based nanobiocomposites
- 4.8 Mechanical properties of starch-based nanobiocomposites reinforced by phyllosilicates
- 4.9 Mechanical properties of starch-based nanobiocomposites reinforced by cellulose nanowhiskers
- 4.10 Mechanical properties of nanobiocomposites reinforced by CNTs
- 4.11 Mechanical properties of starch-based nanobiocomposites reinforced by metalloid oxides, metal oxides, and metal chalcogenides
- 4.12 Mechanical properties of starch-based nanobiocomposites reinforced by other nanofillers
- 4.13 Summary
- 4.14 Future trends
- 5: Studies on mechanical, thermal, and morphological characteristics of biocomposites from biodegradable polymer blends and natural fibers
- Abstract
- Acknowledgments
- 5.1 Introduction
- 5.2 Biodegradable and compostable polymeric materials
- 5.3 Renewable resource-based biodegradable polymers: some examples
- 5.4 Fossil fuel-based biodegradable polymers: some examples
- 5.5 Recyclability of biodegradable polymers
- 5.6 Durability of biodegradable polymers
- 5.7 Polymer blends: some examples
- 5.8 Natural fibers
- 5.9 Biocomposites
- 5.10 Biocomposites based on biodegradable blends as matrix material: Some specific examples
- 5.11 NFCs market and their applications
- 5.12 Conclusions
- 6: Mechanical performance of microcellular injection molded biocomposites from green plastics: PLA and PHBV
- Abstract
- Acknowledgments
- 6.1 Introduction
- 6.2 Biobased and biodegradable polymers PLA and PHBV
- 6.3 Principles, advantages, and challenges of microcellular injection molding
- 6.4 Mechanical behavior of PLA- and PHBV-based blends and biocomposites
- 6.5 Conclusions and outlook for the future
- 7: Mechanical performance of poly(propylene carbonate)-based blends and composites
- Abstract
- Acknowledgments
- 7.1 Introduction
- 7.2 Synthesis of CO2-based polymers
- 7.3 Poly(propylene carbonate)
- 7.4 Applications
- 7.5 Conclusions
- 8: Processing, performance, and applications of plant and animal protein-based blends and their biocomposites
- Abstract
- Acknowledgments
- 8.1 Introduction to protein-based biomaterials
- 8.2 Plant and animal proteins: structure, properties, and sources
- 8.3 Protein biocomposites
- 8.4 Processing of protein-based biocomposites
- 8.5 Modification of proteins for biocomposites development
- 8.6 Challenges and application
- 8.7 Summary
- 9: Mechanical performance of polyethylene (PE)-based biocomposites
- Abstract
- 9.1 General introduction to natural fibers and their composites
- 9.2 Hybridization of PE biocomposites
- 9.3 Stability of PE biocomposites
- 9.4 Biocomposites based on recycled PE
- 9.5 Challenges and opportunities
- 9.6 Conclusion
- 10: Performance of biomass filled polyolefin composites
- Abstract
- Acknowledgments
- 10.1 Introduction
- 10.2 Recent progress in mechanical performance and design of polyolefin/biomass composites
- 10.3 Conclusions and future trends
- 11: Mechanical performance of PC-based biocomposites
- Abstract
- 11.1 Introduction
- 11.2 Advantages of biofibres as composite reinforcements
- 11.3 Disadvantages of biofibres
- 11.4 Characterisation and mechanical performance of PC-based biofibre-reinforced biocomposites
- 11.5 Optimisation of fibre and matrix
- 11.6 Future for biofibre-reinforced PC-based biocomposites
- 12: Nylon uses in biotechnology
- Abstract
- 12.1 Introduction
- 12.2 Chemical characteristics of polyamides (nylon fiber)
- 12.3 Nylon structure
- 12.4 Thermal properties of nylons
- 12.5 Mechanical properties of nylons
- 12.6 Biodegradation of nylon
- 12.7 Immobilization of microorganisms
- 12.8 Immobilization of enzymes
- 13: Mechanical performance of polyvinyl acetate (PVA)-based biocomposites
- Abstract
- Acknowledgments
- 13.1 Introduction
- 13.2 Experimental analysis of PVA based bio-composites
- 13.3 Results of adding nanoclay and NCC to PVA based bio-composites
- 13.4 Conclusion
- 14: Mechanical performance of flax-based biocomposites
- Abstract
- 14.1 Introduction
- 14.2 Plant fibers for composite reinforcement: structure and properties
- 14.3 Influence of the process on the fiber properties
- 14.4 Plant fiber composites properties: relationship between the processing method and final properties
- 14.5 Impact of the process on the plant fiber composite microstructure
- 14.6 Conclusion
- 15: Mechanical properties of oil palm biocomposites enhanced with micro to nanobiofillers
- Abstract
- Acknowledgement
- 15.1 Introduction
- 15.2 Oil palm biomass: an alternative to wood lumber and wood composite products
- 15.3 Designing of various biocomposites from oil palm biomass
- 15.4 Properties of oil palm nanobiocomposites
- 15.5 Product designing and application of oil palm biocomposites
- 15.6 Conclusions
- 16: Design, processing, and characterization of triaxially braided natural fiber epoxy-based composites
- Abstract
- 16.1 Introduction
- 16.2 Processing of triaxially braided cellulose and bioepoxy composites
- 16.3 Analytical model
- 16.4 Mechanical characterization of regenerated cellulose/epoxy composites
- 16.5 Conclusions
- 16.6 Future challenges and opportunities
- 17: Mechanical performance of polyurethane (PU)-based biocomposites
- Abstract
- 17.1 Introduction
- 17.2 Vegetable particles/fibers and synthetic PUs
- 17.3 Biopolyurethane composites
- 17.4 PU nanocomposites based on vegetable-derived nanofibers
- 17.5 Final Remarks
- Index
- Edition: 1
- Latest edition
- Published: August 26, 2015
- Language: English
MM
Manjusri Misra
Prof. Manjusri Misra is a world-renowned and is among the top highly cited materials researchers in the world. Dr. Manju Misra is a professor in the School of Engineering and holds a joint appointment in the Department of Plant Agriculture at the University of Guelph. She holds the Tier 1 Canada Research Chair (CRC) in Sustainable Biocomposites from the Natural Sciences and Engineering Research Council of Canada (NSERC), and the Research Program Director of the Bioeconomy Panel for the Ontario Agri-Food Innovation Alliance a program between the Ontario Ministry of Agriculture and Rural Affairs (OMAFRA) and the University of Guelph. She is a Fellow of the Royal Society of Chemistry (UK), the American Institute of Chemical Engineers (AIChE), and the Society of Plastic Engineers (SPE).
Dr. Misra’s current research focuses primarily on novel bio-based composites and nanocomposites from agricultural, forestry, and recycled resources for the sustainable bio-economy moving towards a Circular Economy. She has authored more than 850 publications, including 470 peer-reviewed journal papers, 30 book chapters, and 60 patents.
Affiliations and expertise
Associate Professor, School of Engineering, University of Guelph, CanadaJP
Jitendra Kumar Pandey
Professor Jitendra Kumar Pandey is a professor in University of Petroleum and Energy Studies, Dehradun, India. He completed his PhD in chemistry, and his research interests include materials synthesis, characterizations and their application in energy storage, and water treatment. He has published more than 50 research articles and reviews in peer-reviewed journals.
Affiliations and expertise
Professor at School of Advanced Engineering, University of Petroleum and Energy Studies, Dehradun, India.AM
Amar Mohanty
Dr. Mohanty is an internationally recognized leader in the field of sustainable polymer science & engineering. He made exceptional contributions in advancing the utilization of renewable, recycled and waste materials. His extensive research program has made world-leading discoveries in bioplastics, natural fibre composites, biocarbon, waste valorization, biomaterial functionalization, nanocomposites, and high-barrier biodegradable packaging. He is one of the highly cited researchers (Google Scholar Citations: 58,367 with h-index: 111 as on June 7, 2024).
He has more than 800 publications to his credit, including 500 peer‐reviewed journal papers, 71 patents (awarded/applied), 6 edited books, 30 book chapters, 300+ conference papers and over 200 plenary and keynote presentations
Affiliations and expertise
Professor, Premier's Research Chair in Biomaterials and Transportation and Director, Bioproducts Discovery and Development Centre (BDDC), School of Engineering, University of GuelphRead Biocomposites: Design and Mechanical Performance on ScienceDirect