Book description
Global awareness of environmental issues has resulted in the emergence of economically and environmentally friendly bio-based materials free from the traditional side effects of synthetics. This book delivers an overview of the advancements made in the development of natural biorenewable resources-based materials, including processing methods and potential applications in green composites. Biorenewable polymers are a special class of natural material found in nature, such as natural fibers, wheat straw, rice husk, and saw dust. In addition to offering renewable feedstocks, natural biorenewable materials are compostable, recyclable, edible, and more energy efficient to process than plastic.
Green Composites from Natural Resources covers various kinds of cellulosic biofibers, such as:
- hemp fibers
- jute
- saccaharum cilliare fibers
- pine needles
- grewia optiva fibers
- sisal fibers
- eulaliopsis binata
- flax fibers
- coconut fibers
- eulaliopsis binata
- baggase fibers
- rice husk
- saw dust
- wood flour
- straw
With scopes for the utilization of natural resources-based materials as potential replacements for traditional petroleum feedstocks on the rise, more scientists and researchers are exploring new composite materials based on biorenewable resources. This book provides information on more eco-friendly and sustainable alternatives to synthetic polymers and discusses the present state and growing utility of green materials from natural resources.
Table of contents
- Front Cover
- Contents
- Preface
- Editor
- Contributors
- Chapter 1: Green Composites: An Introduction (1/2)
- Chapter 1: Green Composites: An Introduction (2/2)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (1/7)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (2/7)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (3/7)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (4/7)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (5/7)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (6/7)
- Chapter 2: Valorization of Agricultural By-Products in Poly(Lactic Acid) to Develop Biocomposites (7/7)
- Chapter 3: Processing Cellulose for Cellulose Fiber and Matrix Composites (1/4)
- Chapter 3: Processing Cellulose for Cellulose Fiber and Matrix Composites (2/4)
- Chapter 3: Processing Cellulose for Cellulose Fiber and Matrix Composites (3/4)
- Chapter 3: Processing Cellulose for Cellulose Fiber and Matrix Composites (4/4)
- Chapter 4: Hemp and Hemp-Based Composites (1/7)
- Chapter 4: Hemp and Hemp-Based Composites (2/7)
- Chapter 4: Hemp and Hemp-Based Composites (3/7)
- Chapter 4: Hemp and Hemp-Based Composites (4/7)
- Chapter 4: Hemp and Hemp-Based Composites (5/7)
- Chapter 4: Hemp and Hemp-Based Composites (6/7)
- Chapter 4: Hemp and Hemp-Based Composites (7/7)
- Chapter 5: Plant Fiber–Based Composites (1/6)
- Chapter 5: Plant Fiber–Based Composites (2/6)
- Chapter 5: Plant Fiber–Based Composites (3/6)
- Chapter 5: Plant Fiber–Based Composites (4/6)
- Chapter 5: Plant Fiber–Based Composites (5/6)
- Chapter 5: Plant Fiber–Based Composites (6/6)
- Chapter 6: Eulaliopsis binata: Utilization of Waste Biomass in Green Composites (1/2)
- Chapter 6: Eulaliopsis binata: Utilization of Waste Biomass in Green Composites (2/2)
- Chapter 7: Bast Fibers Composites for Engineering Structural Applications: Myth or the Future Trend (1/5)
- Chapter 7: Bast Fibers Composites for Engineering Structural Applications: Myth or the Future Trend (2/5)
- Chapter 7: Bast Fibers Composites for Engineering Structural Applications: Myth or the Future Trend (3/5)
- Chapter 7: Bast Fibers Composites for Engineering Structural Applications: Myth or the Future Trend (4/5)
- Chapter 7: Bast Fibers Composites for Engineering Structural Applications: Myth or the Future Trend (5/5)
- Chapter 8: Life Cycle Assessment for Natural Fiber Composites (1/6)
- Chapter 8: Life Cycle Assessment for Natural Fiber Composites (2/6)
- Chapter 8: Life Cycle Assessment for Natural Fiber Composites (3/6)
- Chapter 8: Life Cycle Assessment for Natural Fiber Composites (4/6)
- Chapter 8: Life Cycle Assessment for Natural Fiber Composites (5/6)
- Chapter 8: Life Cycle Assessment for Natural Fiber Composites (6/6)
- Chapter 9: Effect of Halloysite Nanotubes on Water Absorption, Thermal, and Mechanical Properties of Cellulose Fiber–Reinforced Vinyl Ester Composites (1/4)
- Chapter 9: Effect of Halloysite Nanotubes on Water Absorption, Thermal, and Mechanical Properties of Cellulose Fiber–Reinforced Vinyl Ester Composites (2/4)
- Chapter 9: Effect of Halloysite Nanotubes on Water Absorption, Thermal, and Mechanical Properties of Cellulose Fiber–Reinforced Vinyl Ester Composites (3/4)
- Chapter 9: Effect of Halloysite Nanotubes on Water Absorption, Thermal, and Mechanical Properties of Cellulose Fiber–Reinforced Vinyl Ester Composites (4/4)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (1/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (2/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (3/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (4/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (5/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (6/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (7/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (8/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (9/10)
- Chapter 10: Eco-Friendly Fiber-Reinforced Natural Rubber Green Composites: A Perspective on the Future (10/10)
- Chapter 11: Weathering Study of Biofiber-Based Green Composites (1/3)
- Chapter 11: Weathering Study of Biofiber-Based Green Composites (2/3)
- Chapter 11: Weathering Study of Biofiber-Based Green Composites (3/3)
- Chapter 12: Machining Behavior of Green Composites: A Comparison with Conventional Composites (1/3)
- Chapter 12: Machining Behavior of Green Composites: A Comparison with Conventional Composites (2/3)
- Chapter 12: Machining Behavior of Green Composites: A Comparison with Conventional Composites (3/3)
- Chapter 13: Potential Biomedical Applications of Renewable Nanocellulose (1/6)
- Chapter 13: Potential Biomedical Applications of Renewable Nanocellulose (2/6)
- Chapter 13: Potential Biomedical Applications of Renewable Nanocellulose (3/6)
- Chapter 13: Potential Biomedical Applications of Renewable Nanocellulose (4/6)
- Chapter 13: Potential Biomedical Applications of Renewable Nanocellulose (5/6)
- Chapter 13: Potential Biomedical Applications of Renewable Nanocellulose (6/6)
- Chapter 14: Green Composites from Functionalized Renewable Cellulosic Fibers (1/3)
- Chapter 14: Green Composites from Functionalized Renewable Cellulosic Fibers (2/3)
- Chapter 14: Green Composites from Functionalized Renewable Cellulosic Fibers (3/3)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (1/7)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (2/7)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (3/7)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (4/7)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (5/7)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (6/7)
- Chapter 15: Properties and Characterization of Natural Fiber–Reinforced Polymeric Composites (7/7)
- Chapter 16: Vegetable Oils for Green Composites (1/8)
- Chapter 16: Vegetable Oils for Green Composites (2/8)
- Chapter 16: Vegetable Oils for Green Composites (3/8)
- Chapter 16: Vegetable Oils for Green Composites (4/8)
- Chapter 16: Vegetable Oils for Green Composites (5/8)
- Chapter 16: Vegetable Oils for Green Composites (6/8)
- Chapter 16: Vegetable Oils for Green Composites (7/8)
- Chapter 16: Vegetable Oils for Green Composites (8/8)
- Back Cover
Product information
- Title: Green Composites from Natural Resources
- Author(s):
- Release date: November 2013
- Publisher(s): CRC Press
- ISBN: 9781466570702
You might also like
book
Nanotechnology Applications for Clean Water
The World Health Organization in 2004 estimated approximately 1.1 billion people did not have access to …
book
Energy Storage for Sustainable Microgrid
Energy Storage for Sustainable Microgrid addresses the issues related to modelling, operation and control, steady-state and …
book
Developing the Global Bioeconomy
Developing the Global Bioeconomy: Technical, Market, and Environmental Lessons from Bioenergy brings together expertise from three …
book
Composite Reinforcements for Optimum Performance
Reinforcements are an integral part of all composites and the quality and performance of the composite …