Advanced Smart Hydrogel Modeling
Autor Hua Lien Limba Engleză Hardback – 18 mai 2026
- Describes theoretical modeling of smart hydrogels under various stimuli, applying the models to different biomedical and engineering settings
- Stimuli covered include magnetic field, salt concentration, light, urea concentration, and more
- Covers the latest developments in the area of smart hydrogels
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Specificații
ISBN-13: 9780443457678
ISBN-10: 0443457670
Pagini: 400
Dimensiuni: 152 x 229 mm
Editura: ELSEVIER SCIENCE
ISBN-10: 0443457670
Pagini: 400
Dimensiuni: 152 x 229 mm
Editura: ELSEVIER SCIENCE
Cuprins
1. Introduction to Modeling of Smart Hydrogels
2. Development of Multi-Effect-Coupling Magnetic-Stimulus (MECm) Model for Magnetic-Sensitive Hydrogels
3. Development of Multi-Effect-Coupling Magnetic-pH-Stimuli (MECmpH) Model for Dual Magnetic-pH-Sensitive Hydrogels
4. Development of Magneto-Mechanical Model for Magnetic Elastomers Based Microactuators
5. Development of Multi-Effect-Coupling Ionic-Strength-Stimulus (MECis) Model for Ionic-Strength-Sensitive Hydrogel
6. Development of Multi-Effect-Coupling Photo-Stimulus (MECp) Model for Photon-Sensitive Hydrogel
7. Development of Multi-Effect-Coupling Glucose-Stimulus (MECglu) Model for Glucose-Sensitive Hydrogel
8. Development of Multi-Effect-Coupling Urea-Stimulus (MECu) Model for Urease-Loaded Hydrogels
9. Development of Multi-Effect Coupling Oxygen-pH Stimuli (MECopH) Model for Hemoglobin-Loaded Polyelectrolyte
10. Development of Multi-Effect-Coupling Pressure-Thermal-Stimuli (MECpresstherm) Model for Dual Pressure-Thermal-Sensitive Hydrogels
11. Mechanical Characteristics of Gel, Dielectric Gel, and Smart Hydrogel by Finite Element Analysis
12. Development of Chemo-Electro-Thermo-Mechanical Models for Transitions of Phases in Physical Hydrogels between Gel and Solution Phases Identified via Density of Crosslinks
13. Theoretically Modeling Extension to Mimosa pudica as a Smart Natural Plant System
2. Development of Multi-Effect-Coupling Magnetic-Stimulus (MECm) Model for Magnetic-Sensitive Hydrogels
3. Development of Multi-Effect-Coupling Magnetic-pH-Stimuli (MECmpH) Model for Dual Magnetic-pH-Sensitive Hydrogels
4. Development of Magneto-Mechanical Model for Magnetic Elastomers Based Microactuators
5. Development of Multi-Effect-Coupling Ionic-Strength-Stimulus (MECis) Model for Ionic-Strength-Sensitive Hydrogel
6. Development of Multi-Effect-Coupling Photo-Stimulus (MECp) Model for Photon-Sensitive Hydrogel
7. Development of Multi-Effect-Coupling Glucose-Stimulus (MECglu) Model for Glucose-Sensitive Hydrogel
8. Development of Multi-Effect-Coupling Urea-Stimulus (MECu) Model for Urease-Loaded Hydrogels
9. Development of Multi-Effect Coupling Oxygen-pH Stimuli (MECopH) Model for Hemoglobin-Loaded Polyelectrolyte
10. Development of Multi-Effect-Coupling Pressure-Thermal-Stimuli (MECpresstherm) Model for Dual Pressure-Thermal-Sensitive Hydrogels
11. Mechanical Characteristics of Gel, Dielectric Gel, and Smart Hydrogel by Finite Element Analysis
12. Development of Chemo-Electro-Thermo-Mechanical Models for Transitions of Phases in Physical Hydrogels between Gel and Solution Phases Identified via Density of Crosslinks
13. Theoretically Modeling Extension to Mimosa pudica as a Smart Natural Plant System