Biodegradable and Sustainable Fibres explores the manufacture and use of textiles that are beneficial by their biodegradable nature or hold some benefit in being from a sustainable source.
Features:
- Covers major fibre types, the development of synthetic silk, biodegradeable natural fibre composites, nonwovens, geotextiles, and soy bean protein fibres
- Focuses on the history and future of soya bean protein fibres
- includes references and a discussion of future trends
Contents
Microbial Processes in the Degradation of Fibers
- Background and Terminology
- Incubation Conditions Used for Studying Biodegradation of Fibers and Films
- Sources of Microorganisms and Enzymes for Laboratory Incubations
- Analytical Methods Used to Assess Biodegradation of Fibers and Films
- Examples of Types of Bonds that are Susceptible to Enzymatic attack
Bast Fibres
- Flax
- Hemp
- Jute
- Ramie
- Kenaf
- Abaca
- Comparison of Fibre Properties
Alginate Fibres
- The Chemical Nature of Alginate Materials
- Physical Properties of Alginate Based Materials
- Industrial Applications of Alginates
- Fabrication of Alginates as Useful Flexible Substrates in Medical Textile Based Products
- Alginates in Bioengineering
Cellulosic Fibres and Fabric Processing
- Life Cycle Assessment (LCA)
- The Mechanisms of Enzymatic Reactions on Wood and Cellulose
- Biodegradability of Cellulose Fibres in Textile Blends
- Biotechnology for Manufacture and Modification of Cellulosic Fibres
- Enzyme Applications in Fabric and Dyestuff Processing
- Hygienic and Medical Fibres
- Future Trends of Cellulosic Fibres
Lyocell Fibres
- Process Description
- Lyocell Sustainability
- Lyocell Fibre Properties
- Lyocell in Textiles
- Lyocell - A Versatile, High Performance Fibre for Nonwovens
- Marketing
Polyactic Acid Fibres
- Chemistry and Manufacture of PLA Polymer Resin
- PLA Fibre Properties
- Applications
- Environmental Sustainability
- PLA Fibres and the Future
Poly(Hydroxyalkanoates) and Poly(Caprolactane)
- PHA-Based Oriented Structures
- Poly(caprolactone)-Based Fibres
- Structure of Drawn Fibers
- Thermal Properties
- Enzymatic and Hydrolytic Degradation
- Other Biodegradable and Sustainable Polyesters
- Application of Polyester-Based Biodegradable Fibres
The Route to Synthetic Silks
- Silk Structures
- Development of Fibre: The Feedstock
- Development of Fibre: Spinning
- Performance Characteristics
Biodegradable Natural Fiber Composites
- Biodegradable fibers
- Biodegradable resins
- Soy protein based green composites
Biodegradable Nonwovens
- Nonwoven Fabrics
- Fiber Consumption in Nonwovens
- Web Formation Methods
- Web Bonding Techniques
- Technology and Relative Production Rate
- Recent Research on Biodegradable Nonwovens
- Applications of Biodegradable Nonwovens
- Flushable Nonwovens
- Leading Producers of Nonwovens
Natural Geotextiles
- Fundamental Aspects of Geotextiles
- Fibres Used for Natural Geotextile Products
- Fibre Extraction and Preparation
- Production of Natural Geotextile Products
- Measurement of the Properties of Natural Geotextiles
Conversion of Cellulose, Chitin, and Chitosan to Filaments With Simple Salt Solutions
- Cellulose in Liquid Ammonia/Ammonium Thiocyanate Solutions
- Fibers from Chitin and Chitosan
Soya Bean Protein Fibres - Past, Present, and Future
- The Soya Bean Plant
- Naming Regenerated Protein Fibres
- The Need for New Fibre Sources
- Generalised Method for Producing Soya Bean Fibre in the Mid-Twentieth Century
- Contemporary Research into Alternative Protein Fibre Fources
- Contemporary Methods for Producing Fibres from Soya Bean Protein
- Fibre Characteristics
- Identifying Soya Bean Protein Fibres
- Degradation Behaviour
- A Truly Biodegradable and Ecological Fibre
Index