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作用面积对宏观超分子组装行为的调控

学位论文数据集第3-5页
Abstract第5-6页
摘要第7-8页
Abbreviations第8-18页
Chapter 1:Introduction第18-44页
    1.1 Introduction to Supramolecular Chemistry第18页
    1.2 Self Assembly第18-20页
        1.2.1 Types of Self Assembly第19-20页
        1.2.2 Common Features of Self-Assembly第20页
    1.3 Supramolecular Assembly through Hydrogen-bonding第20-28页
        1.3.1 Linear Polymers第22-26页
            1.3.1.1 Grafted Architectures第23-24页
            1.3.1.2 Networks through Hydrogen-Bonding第24-26页
        1.3.2 Supramolecular Assembly through Metal Complexation第26-27页
        1.3.3 Host-guest Interactions and Biological Systems第27-28页
    1.4 From Supramolecular Chemistry to Supramolecular Materials第28-30页
    1.5 Macroscopic Assembly through Various Interactions第30-33页
        1.5.1 Macroscopic Assembly of Whitesides Group through Weak Long-Range Interactions第31-32页
        1.5.2 Macroscopic Assembly through Chemical Forces第32-33页
    1.6 Macroscopic Assembly of Hydrogels Systems第33-37页
        1.6.1 Macroscopic Self-Assembly of Hydrogels through Molecular Recognition第33-36页
            1.6.1.1 Gel Self-Assembly through Host-Guest Interactions第34页
            1.6.1.2 Photo Switchable Gel Self-Assembly第34页
            1.6.1.3 Solvent-Switchable Gel Self-Assembly第34-35页
            1.6.1.4 Redox-Switchable Gel Self-Assembly第35页
            1.6.1.5 pH-Switchable Gel Self-Assembly第35-36页
            1.6.1.6 Temperature-Sensitive Gel Self-Assembly第36页
        1.6.2 Macroscopic Assembly of Hydrogels through Electrostatic Interactions第36页
        1.6.3 Macroscopic Assembly of Hydrogels through Magnetic Interactions第36-37页
    1.7 Macroscopic assembly of rigid building blocks第37-39页
        1.7.1 Macroscopic Assembly of Rigid Building Blocks Modified with LBL第37-38页
        1.7.2 Concept of Flexible Spacing Coating in Macroscopic Assembly第38-39页
    1.8 Macroscopic Assembly through Combining Long Range Forces and Molecular Recognition第39-40页
    1.9 Applications of Macroscopic Assembly第40-41页
    1.10 Aims and Objectives of the Work第41-44页
Chapter 2:Macroscopic Assembly Based on Coordinate Covalent Interactions第44-58页
    2.1 Introduction第44-45页
    2.2 Experimental第45-48页
        2.2.1 Materials and Instrument第45-46页
        2.2.2 Preparation of PSS Cu~(+2) Solution第46页
        2.2.3 Fabrication of Building Blocks第46页
        2.2.4 LBL Modification of Building Blocks第46-48页
        2.2.5 Assembly-disassembly Experiments第48页
    2.3 Results and Discussions第48-55页
        2.3.1 UV-Visible Characterization on Quartz Cells第49-51页
        2.3.2 Assembly and Disassembly Experiment through Coordinate Covalent Interactions第51-52页
        2.3.3 Disassembly Experiments第52-54页
        2.3.4 Reproducible Loading and Unloading of PSS-Cu~+ in Multilayer's第54-55页
    2.4 Conclusion第55-58页
Chapter 3 Toward Understanding Whether Interactive Surface Area Could Direct OrderedMacroscopic Supramolecular Self-Assembly第58-78页
    3.1 Introduction第58-59页
    3.2 Experimental Section第59-62页
        3.2.1 Materials and Instrument第59页
        3.2.2 Fabrication of Cylindrical Building Blocks第59-60页
        3.2.3 Surface Modification of the Building Blocks第60-61页
        3.2.4 Assembly Processes and Statistical Analysis第61-62页
    3.3 Results and Discussion第62-77页
        3.3.1 Statistical Analysis of Assembled Patterns第63-68页
        3.3.2 Transformation of Assembled Forms with Extra Interference of Energy第68-69页
        3.3.3 Measurement of Film Thickness第69-70页
        3.3.4 Force Measurement with Different d/h Ratios第70-73页
        3.3.5 Ordering the Macroscopic Assembly第73-77页
    3.5 Conclusion第77-78页
Chapter 4:Conclusion第78-80页
    4.1 Coordinate Interactions第78页
    4.2 Surface Interactive Area第78-80页
References第80-94页
Acknowledgement第94-96页
List of Publications第96-98页
Resume of Author第98-100页
Resume of Supervisor第100-102页
附件第102-103页

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