Green by Design: Harnessing the power of bio-based polymers at interfaces

Cover
Half Title
Green by Design: Harnessing the power of bio-based polymers at interfaces
Copyright
Contents
Preface
	Bibliography
Editor biographies
Book description
List of contributors
1. Introduction to advances in bio-based polymers: chemical structures and functional properties at the interface
	1.1 Introduction
	1.2 Polysaccharide based biomaterials
		1.2.1 Cellulose
		1.2.2 Starch
		1.2.3 Chitin/chitosan
		1.2.4 Alginates
		1.2.5 Hemicellulose
	1.3 Phenolic based biomaterials
		1.3.1 Lignin
		1.3.2 Tannins
	1.4 Protein based biomaterials
		1.4.1 Fibers
		1.4.2 Filtration
		1.4.3 Barrier materials
		1.4.4 Protein-based adhesives
	1.5 Nucleic acid based biomaterials
	1.6 Summary and perspectives
	Bibliography
2. Bio-based surface coatings
	2.1 Introduction
	2.2 Bio-based superwetting coatings
		2.2.1 Bio-based superhydrophobic coatings
		2.2.2 Bio-based superhydrophilic coatings
		2.2.3 Bio-based superslippery coatings
	2.3 Bio-based flame-retardant coatings
		2.3.1 Mechanism for bio-based flame-retardant coatings
		2.3.2 Bio-based flame-retardant coatings through compound formation
		2.3.3 Bio-based flame-retardant coatings through chemical modification formation
	2.4 Bio-based antibacterial coatings
		2.4.1 Antibacterial agents
		2.4.2 Preparation methods
		2.4.3 Applications
	2.5 Other bio-based coatings
	2.6 Summary
	Bibliography
3. Bio-based gas barriers/films for sustainable packaging and preservation
	3.1 Introduction
	3.2 The gas permeation process and parameters for gas barriers
		3.2.1 Introduction to the gas permeation process and related models
	3.3 Strategies to construct bio-based barrier films
		3.3.1 Tortuous path
		3.3.2 Intermolecular interactions
		3.3.3 Crystal arrangements
	3.4 Types of bio-based barrier films
		3.4.1 Bio-based polymers and derivatives
		3.4.2 Bio-based nanomaterials
	3.5 Preparation methods of barrier films
	3.6 Applications
		3.6.1 Food packaging
		3.6.2 Flexible electronics device
		3.6.3 Renewable energy
	3.7 Circular economy integration
	3.8 Challenges
	Bibliography
4. Bio-based hydrogels in biomedical applications
	4.1 Biopolymers and their properties for biomedical applications
		4.1.1 Polysaccharides
		4.1.2 Proteins
		4.1.3 Others
	4.2 Crosslinking mechanisms for bio-based hydrogels
		4.2.1 Physical crosslinking
		4.2.2 Chemical crosslinking
		4.2.3 Hybrid crosslinking
	4.3 Design and preparation of bio-based hydrogels and their biomedical applications
		4.3.1 Molecular self-assembly
		4.3.2 3D printing
		4.3.3 DN strategy
	4.4 Properties at the interface of bio-based hydrogels and their surroundings
		4.4.1 Antibacterial property
		4.4.2 Hemostatic ability
		4.4.3 Anticoagulation activity
		4.4.4 Adhesive capacity
		4.4.5 Immobilization of biomolecules and cells
		4.4.6 Inhibition of protein/cell adhesion
		4.4.7 Hydrophobization
	4.5 Conclusions and perspectives
	Bibliography
5. Bio-based aerogels for EMI shielding applications
	5.1 Introduction
	5.2 Overview of aerogels
	5.3 General concepts, mechanisms and terminologies of EMI shielding
	5.4 Research progress of bio-based aerogels for EMI shielding
	5.5 Natural biopolymers and their composites for EMI shielding
		5.5.1 Wood-based aerogels
		5.5.2 Cellulose-based aerogels
		5.5.3 Lignin-based aerogels
		5.5.4 Alginate-based aerogels
		5.5.5 Chitosan-based aerogels
	5.6 Synthetic biopolymers and composites for EMI shielding
		5.6.1 Polyvinyl alcohol-based aerogels
		5.6.2 Polycaprolactone-based aerogels
	5.7 Challenges of bio-based aerogels for EMI shielding
	5.8 Conclusion and future outlook
	Bibliography
6. Hemicellulose based materials
	6.1 Introduction
	6.2 Hemicellulose-based hydrogels
		6.2.1 Physical crosslinking of hemicellulose-based hydrogels
		6.2.2 Chemically crosslinked hemicellulose-based hydrogels
		6.2.3 Composite hydrogel
		6.2.4 Hemicellulose-based hydrogel adsorption material
		6.2.5 Hemicellulose-based intelligent responsive hydrogel
	6.3 Hemicellulose-based aerogels and foams
	6.4 Construction and application of hemicellulose-based functional films
		6.4.1 Physical blending strategy
		6.4.2 Molecular engineering
	6.5 Hemicellulose-based carbon materials
		6.5.1 Hemicellulose-based carbon quantum dots
		6.5.2 Hemicellulose-based porous carbon materials
	6.6 Hemicellulose-based emulsifier
	6.7 Hemicellulose-based room temperature phosphorescent materials
	6.8 Conclusion and outlook
	Acknowledgments
	Bibliography