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OverviewShape memory materials are immensely useful because of their capability to recover their original shapes upon exposure to an external stimulus such as heat, moisture, light or a magnetic field. This book reviews key recent research in shape memory polymers, their properties and applications. Topics include the relationship between morphological structures and shape memory properties; high performance Tg and Tm type shape memory polymers; structures of shape memory polymers with supramolecular switches; and the thermally-active and moisture-active shape memory effect of supermolecular shape memory polymers.Advances in shape memory polymers is an essential reference for polymer and textile material students, scientists, designers, engineers and manufacturers. It is also an invaluable guide for professionals in the biomedical, electronics and engineering industries. Full Product DetailsAuthor: Jinlian Hu (Hong Kong Polytechnic University, Hong Kong)Publisher: Elsevier Science & Technology Imprint: Woodhead Publishing Ltd Volume: 146 Dimensions: Width: 15.60cm , Height: 2.10cm , Length: 23.40cm Weight: 0.690kg ISBN: 9780857098528ISBN 10: 0857098527 Pages: 368 Publication Date: 16 April 2013 Audience: Professional and scholarly , Professional & Vocational Format: Hardback Publisher's Status: Active Availability: Manufactured on demand ![]() We will order this item for you from a manufactured on demand supplier. Table of ContentsWoodhead Publishing Series in Textiles Acknowledgements Preface Chapter 1: Introduction to shape memory polymers Abstract: 1.1 Introduction 1.2 Defining shape memory polymers 1.3 Types of shape memory polymers 1.4 A typical shape memory polymer: shape memory polyurethanes (SMPUs) 1.5 Conclusions Chapter 2: Tm-type shape memory polymers Abstract: 2.1 Introduction 2.2 Structure and properties of Tm-type shape memory polymers 2.3 Shape memory properties of Tm-type shape memory polymers 2.4 Thermo-mechanical conditions affecting Tm-type shape memory properties Chapter 3: Tg-type shape memory polymers Abstract: 3.1 Introduction 3.2 Structure and properties of Tg-type shape memory polymers 3.3 Segmented polyurethanes with similar Tg 3.4 Thermo-mechanical conditions on Tg-type shape memory polymers 3.5 Conclusions Chapter 4: High performance type shape memory polymers prepared by modified two-step polymerization Abstract: 4.1 Introduction 4.2 High performance shape memory polymers 4.2.1 Molecular structures 4.2.2 Thermal properties 4.2.3 Shape memory properties 4.2.4 Deformation stress, long-term shape fixing and shape memory properties 4.2.5 Recovery stress and shape memory properties 4.2.6 Stress relaxation 4.3 High performance isophorone diisocyanate (IDPI) Tm-type shape memory polymers 4.3.1 Molecular structures 4.3.2 Thermal properties 4.3.3 Dynamic mechanical properties 4.3.4 Shape memory properties 4.3.5 Shape memory properties after long time fixing 4.3.6 Recovery stress 4.3.7 Resistance to stress relaxation 4.4 High performance Tg-type shape memory polyurethane (SMPU) prepared by modified two-step polymerization 4.4.1 Thermal properties of Tg-type high performance shape memory polyurethane 4.4.2 Dynamic mechanical properties of Tg-type high performance shape memory polyurethane 4.4.3 Phase separation of Tg-type high performance shape memory polyurethane 4.4.4 Shape memory properties of Tg-type high performance shape memory polyurethane: thermo-mechanical cyclic tensile tests 4.4.5 Shape memory properties of Tg-type high performance shape memory polyurethane: shape fixing 4.4.6 Shape memory properties of Tg-type high performance shape memory polyurethane: shape recovery 4.4.7 Shape memory properties of Tg-type high performance shape memory polyurethane: recovery stress 4.5 Conclusions Chapter 5: Supramolecular shape memory polymers Abstract: 5.1 Introduction 5.2 Synthesis of polymers containing pyridine moieties 5.3 Supramolecular polymers containing functional pyridine 5.4 Supramolecular liquid crystalline polymers containing pyridine moieties 5.5 Supramolecular polymers and shape memory polymers 5.6 Conclusions Chapter 6: Supramolecular shape memory polymers containing pyridine Abstract: 6.1 Introduction 6.2 Synthesis of shape memory polyurethanes (SMPUs) containing pyridine moieties 6.3 The molecular structure of BINA-based SMPUs (BIN-SMPUs) 6.4 Theoretical calculations of BIN-SMPU properties and performance 6.5 Fourier transform infrared (FT-IR) analysis of BIN-SMPUs 6.6 Thermal properties of BIN-SMPUs 6.7 Wide angle X-ray diffraction (WAXD) studies of BIN-SMPUs 6.8 Dynamic mechanical properties of BIN-SMPUs 6.9 Molecular model and morphology of BIN-SMPUs 6.10 Summary Chapter 7: Thermally-induced properties of supramolecular shape memory polymers containing pyridine Abstract: 7.1 Introduction 7.2 Comparison of BINA-based shape memory polyurethane (BIN-SMPU) with other SMPUs 7.3 Influence of different factors on shape memory effects (SMEs) of BIN-SMPUs 7.4 Thermally-induced SME mechanism of BIN-SMPUs 7.5 Conclusions Chapter 8: Moisture-induced properties of supramolecular shape memory polymers containing pyridine Abstract: 8.1 Introduction 8.2 Moisture absorption of BIN-SMPUs 8.3 Effect of moisture absorption on the thermal properties of polyurethane 8.4 Effect of moisture absorption on the dynamic mechanical properties of polyurethane 8.5 Moisture-induced and water-influenced shape memory effects (SMEs) 8.6 Effect of immersion time on strain recovery 8.7 Mechanism of the moisture-induced shape memory effect in BIN-SMPUs 8.8 Summary Chapter 9: Shape memory polymers with novel functions: electro-active, magnetically-active, light-adaptive and phase change materials Abstract: 9.1 Introduction 9.2 Electro-active shape memory polymers 9.3 Magnetically-active shape memory polymers 9.4 Moisture-active shape memory polymers 9.5 Light-adaptive composites from thermally-adaptive shape memory polymers 9.6 Introduction to phase change materials 9.7 Phase change materials for textiles applications 9.8 Solid–liquid phase change materials 9.9 Shape memory polymers with phase change properties 9.10 Fabrication strategies for phase change materials 9.11 Summary Chapter 10: Shape memory finishing treatments for smart textiles Abstract: 10.1 Introduction 10.2 Reaction of shape memory polyurethane (SMPU), dimethyloldihydroxylethyleneurea (DMDHEU) and liquid ammonia (LA) as finishing agents with cellulosic materials 10.3 Shape memory finishing treatments for cotton 10.4 Surface morphology of cotton fabrics treated with shape memory polyurethane (SMPU) 10.5 Fabric tensile properties and surface appearance 10.6 Fabric structure 10.7 Effects of shape memory polyurethane (SMPU) on LA/DMDHEU treated cotton 10.8 Internal stresses in cotton fabrics 10.9 The role of shape memory polyurethane as a finishing agent for cotton fabrics 10.10 Summary Chapter 11: Manufacture of Tg and Tm shape memory polyurethane (SMPU) polymer fibers Abstract: 11.1 Introduction 11.2 Tm-type shape memory fibers prepared by melt spinning 11.3 Tg-type shape memory fibers prepared by wet spinning 11.4 Summary Chapter 12: Future developments in shape memory polymers Abstract: 12.1 Introduction 12.2 Tm-shape memory polyurethane (SMPU) with varying Tm 12.3 Tg-SMPUs with thermally reversible chemical cross-links 12.4 Two-way shape memory fibers 12.5 Gas-sensitive shape memory BINA-HDI copolymers (PUPys) 12.6 Chemically cross-linked PUPys 12.7 Multi-stimuli responsive shape memory fibers 12.8 PUPys polymer blends with other polymers 12.9 Supramolecular liquid crystalline shape memory polymers 12.10 Main-chain pyridine-containing SMPUs 12.11 Applications IndexReviewsAuthor InformationJinlian Hu is a Professor at the Institute of Textiles and Clothing, Hong Kong Polytechnic University. A Fellow of the Textile Institute, she was also the recipient of the 2001 Award for Distinguished Achievement from the US Fiber Society. Professor Hu has published over 300 articles and several books on textile materials. She is currently the Editor-in-Chief of the Research Journal of Textiles and Apparel. Tab Content 6Author Website:Countries AvailableAll regions |