Shape Memory Polymers

1 Introduction
1.1 Historical background of shape memory materials
1.2 Importance and Applications of Shape Memory Polymers
1.3 Objectives and Structure of the Book

2 The Notion of Memory - Philosophical and Scientific Perspectives
2.1 Definition of Memory in Living Beings: Biological and Cognitive Mechanisms
2.2 Memory in Non-Living Systems: Analogies and Distinctions
2.3 Comparison of Memory Mechanisms Between Living and Non-Living Systems
2.4 Beyond Shape: Memory of Properties and Material Characteristics

3 Fundamental Mechanisms of Shape Memory Polymers
3.1 Molecular Architecture and Structural Foundations of Shape Memory
3.2 Thermomechanical Programming Mechanisms
3.3 Activation and Recovery Mechanisms
3.4 Thermodynamic and Energetic Framework
3.5 Structure-Property-Memory Relationships
3.6 Multidimensional and Multiscale Classification of Shape Memory Polymers

4 Kinetics of the Shape Memory Effect: Mechanisms and Modeling
4.1 Time-Dependent Transformation Mechanisms
4.2 Thermodynamic-Kinetic Coupling in Shape Memory Polymers
4.3 Dynamic Modeling and Predictive Frameworks
4.4 Influence of Material Architecture and Loading Conditions
4.5 Simulation Tools and In-Service Prediction

5 Applications and Advantages of Shape Memory Polymers
5.1 Biomedical and Healthcare Applications
5.2 Structural and Mechanical Systems
5.3 Functional and Smart Systems
5.4 Manufacturing and Emerging Industrial Platforms

6 Innovations and Perspectives in the Field of Shape Memory
6.1 Shape Memory at Microscopic and Macroscopic Scales
6.2 Partial Shape Memory: Mechanisms and Applications
6.3 Integration into Composite Structures and Hybrid Materials

7 Challenges, Sustainability, and Economic Considerations
7.1 Durability and Repeatability of Shape Memory Cycles
7.2 Environmental Impact and Sustainability
7.3 Economic and Industrial Constraints in SMP Deployment

8 Summary and Perspectives
8.1 Summary of Key Points Discussed
8.2 Future Developments in Shape Memory Polymers

9 References