Advanced Smart Hydrogel Modeling provides structured computational models alongside experimental validation for predicting hydrogel performance under complex biochemical and physical stimuli. Guidance on using these models in specific biomedical and engineering applications is also covered, as are the latest developments in the area of hydrogels. Stimuli discussed include magnetic field, pressure coupled with temperature, pH coupled with magnetic field, salt concentration, light, glucose or carbohydrate concentration, urea concentration, and pH coupled with oxygen concentration. The book also…mehr
Advanced Smart Hydrogel Modeling provides structured computational models alongside experimental validation for predicting hydrogel performance under complex biochemical and physical stimuli. Guidance on using these models in specific biomedical and engineering applications is also covered, as are the latest developments in the area of hydrogels. Stimuli discussed include magnetic field, pressure coupled with temperature, pH coupled with magnetic field, salt concentration, light, glucose or carbohydrate concentration, urea concentration, and pH coupled with oxygen concentration. The book also includes a chapter discussing the plant mimosa pudica as a smart natural plant system, focusing on two-dimensional biochemical-electrical-mechanical transient models to capture its rapid collapse and slow recovery movements, providing a bridge from smart artificial synthesis materials to smart natural materials.
Institute of High Performance Computing, Singapore
Inhaltsangabe
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
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
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