Functional Hydrogels - Fu, Guodong

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Auteur(s) : Fu, Guodong - Kalulu, Mulenga

Editeur : Wiley-Vch Gmbh

Langue : Anglais

Parution : 01/07/2026

Format : Moyen, de 350g à 1kg

Nombre de pages : 736.0

ISBN : 3527355839

Résumé :

Comprehensive exploration of hydrogels, from molecular design to advanced technologies

Functional Hydrogels: Preparation, Functionality, and Applications presents a comprehensive two-volume exploration of one of the most versatile classes of soft materials in modern science and engineering. Bringing together advances in chemistry, materials science, biology, and applied engineering, the book traces the evolution of hydrogels from simple water-swollen networks to adaptive, multifunctional platforms driving innovation across healthcare, sustainability, and technology.

The first volume provides a scientific foundation, covering the evolution of hydrogel research, polymerization and fabrication strategies, network construction, bioprinting, and functionalization. The second volume focuses on applications at the frontiers of science and industry, highlighting hydrogel-based actuators, advanced drug delivery systems, regenerative medicine scaffolds, wearable devices, and neural interfaces alongside applications in environmental remediation, food and packaging, energy storage, and agriculture.

Functional Hydrogels discusses:

• Conventional polymerization methods such as free radical polymerization (FRP), covering initiation mechanisms, propagation and termination, and monomer systems and crosslinkers
• Techniques for hydrogels for bioprinting, covering extrusion-based, inkjet-based, laser-assisted, and stereolithography (SLA)-based bioprinting
• Challenges and future prospects in nanomaterial integration, including bioactivity preservation, functionalization efficiency, and stability and durability
• Molecular basis of self-healing hydrogels, covering dynamic covalent bonds with information on disulfide and boronate ester bonds, and non-covalent interactions with information on hydrophobic and host-guest interactions
• Environmental impact across the hydrogel lifecycle, covering raw material extraction and synthesis, end-of-life scenarios, and environmental fate

Balancing academic rigor with applied relevance, Functional Hydrogels is designed for graduate students, researchers, engineers, and professionals seeking to learn how these adaptive materials are poised to address pressing global challenges, from personalized healthcare to renewable energy and sustainable resource management.

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Biographie:

Chapter 1: Evolution of Hydrogels - From Basic to Functional
1.1 What are Functional Hydrogels??
1.2 The History of Hydrogels
1.3 The Role of Hydrogels in Modern Science and Industry
1.4 Current Trends and Innovations in Hydrogel Research?

Chapter 2: Polymerization Methods for Hydrogel Synthesis
2.1 Overview of Polymerization Techniques
2.3 Controlled/Living Radical Polymerization (CRP)
2.4 Photopolymerization
2.5 Radiation-Induced Polymerization
2.6 Click Chemistry-Based Polymerization
2.7 Enzymatic Polymerization
2.8 Interpenetrating and Semi-Interpenetrating Polymer Networks (IPNs and SIPNs)
2.9 Comparative Analysis of Polymerization Methods
2.10 Emerging Trends and Future Directions

Chapter 3: Construction of Hydrogels
3.1 Basic Principles of Hydrogel Formation
3.2 Building Blocks of Hydrogels
3.3 Formation of Hydrogel Molecular Structure
3.4 Hydrogel Network Architecture
3.5 Steps in Hydrogel Construction (General Workflow)
3.6 Tailoring Hydrogel Properties During Construction
3.7 From Basics to Complex Hydrogel Designs
3.8 Challenges in Hydrogel Construction

Chapter 4: Hydrogel Bioprinting
4.1 Fundamental Principles of Hydrogel Bioprinting
4.2 Hydrogel Varieties for Bioprinting Applications
4.3 Techniques for Hydrogel for Bioprinting
4.4 Gelation Strategies
4.5 Design Parameters for Bioprintable Hydrogels
4.6 Multifield Potential of Bioprinted Hydrogels
4.7 Challenges and Future Prospects

Chapter 5: Functionalization of Hydrogels
5.1 Functionalization During Synthesis
5.2 Post-Synthesis Functionalization
5.3 Environmentally Triggered Functional Modifications
5.4 Drug and Bioactive Molecule Integration
5.5 Nanomaterial Integration
5.6 Challenges and Future Prospects

Chapter 6: Hydrogel Characterization
6.1 Chemical Characterization
6.2 Physical and Morphological Characterization
6.3 Mechanical Characterization
6.4 Thermal Characterization
6.5 Biological Characterization
6.6 Diffusivity and Permeability
6.7 Optical and Electrical Properties
6.8 Advanced and Emerging Techniques
6.9 Future Perspectives and Emerging Trends

Chapter 7: Self-Healing Hydrogels
7.1 Self-Healing Mechanisms
7.2 Molecular Basis of Self-Healing
7.3 Material Properties Influencing Self-Healing
7.4 Significance of Self-Healing Hydrogels
7.5 Challenges in Development
7.6 Future Directions

Chapter 8: Shape-Memory Hydrogels
8.1 Design Principles of Shape-Memory Hydrogels
8.2 Fabrication Strategies
8.3 Modification Strategies for Enhancing Shape-Memory Performance
8.4 Breakthroughs Across Diverse Fields
8.5 Challenges and Future Directions
8.6 Summary

Chapter 9: Biocompatibility and Safety of Hydrogels
9.1 Definitions and Regulatory Perspectives
9.2 Hydrogel Composition and Impact on Safety
9.3 Biocompatibility Evaluation Methods
9.4 Immunological Considerations
9.5 Hemocompatibility and Thrombogenicity
9.6 Long-Term Safety and Degradation Kinetics
9.7 Case Studies on Hydrogel Biocompatibility and Safety
9.8 Future Directions of Hydrogel Biocompatibility and Safety

Chapter 10: Environmental Impact and Degradability of Hydrogels
10.1 Sustainability of Hydrogels by Source
10.2 Environmental Impact Across the Hydrogel Lifecycle
10.3 Degradation Mechanisms of Hydrogels
10.4 Assessing Biodegradability and Environmental Safety
10.5 Design Strategies for Environmentally Friendly Hydrogels
10.6 Case Studies
10.7 Regulatory and Policy Considerations
10.8 Fut...

Sommaire:

Fu Guodong is Professor in the School of Chemistry and Chemical Engineering at Southeast University, China. His work focuses on smart functional materials, especially hydrogels, for advancements in soft matter actuators and sustainable innovations.

Mulenga Kalulu is a Special Research Fellow of School of Natural Sciences, Department of Chemistry, University of Zambia. Currently, he is pursuing a Ph.D. at Southeast University under Prof. Fu Guodong. His research focuses on smart hydrogels, actuators, sensors, conductive nanomaterials, and polymer synthesis.