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高直链淀粉基木材胶黏剂的制备、特性及其二元接枝体系的构建研究

摘要第8-11页
Abstract第11-13页
List of abbreviation第14-16页
CHAPTER 1 Introduction and review of literature第16-45页
    1.1. Research background第16-19页
    1.2. Synthetic or petroleum-based adhesives第19-21页
        1.2.1. UF adhesive第19页
        1.2.2. MUF adhesive第19页
        1.2.3. PF adhesive第19-20页
        1.2.4. pMDI adhesive第20-21页
    1.3. Formaldehyde emission from WBPs第21-24页
    1.4. Why people are moving towards bio-based resources?第24-25页
    1.5. Sustainable resources for wood adhesives第25-29页
        1.5.1. Lignin第25-26页
        1.5.2. Tannins第26页
        1.5.3. Proteins第26-27页
        1.5.4. Starch第27-29页
    1.6. Development of adhesive for wood application based on starch第29-40页
        1.6.1. Optimization of adhesive for birch veneer using starch/PVOH system第31页
        1.6.2. Formulation of adhesive derived from tannin and corn starch第31-32页
        1.6.3. Incorporation of silica nanoparticles in the adhesive formulation第32-33页
        1.6.4. Addition of surfactants improved the performance of wood adhesive第33-34页
        1.6.5. Development of adhesive derived from corn starch第34页
        1.6.6. Incorporation of isocyanate in the wood adhesive第34-35页
        1.6.7. Addition of nano-layered silicate montmorillonite (MMT) and organosulfate surfactant in the adhesive第35-36页
        1.6.8. Enhancing the performance of adhesive by silane coupling agent第36-38页
        1.6.9. Effect of heat pretreatment on the performance of wood adhesive第38页
        1.6.10. Addition of nano-titanium dioxide in the adhesive formulation第38-39页
        1.6.11. Effect of acid hydrolysis on the properties of wood adhesive第39页
        1.6.12. Evaluation of organo-silicates agents on the characteristics of adhesive第39-40页
    1.7. Scope of the study第40-42页
    1.8. Problem statement and research objectives第42-45页
CHAPTER 2 Effects of sucrose fatty acid esters on the structural, rheological, stability, retrogradation and bonding performance of high amylose starch-based wood adhesive第45-79页
    2.1. Introduction第45-48页
    2.2. Material and methods第48-54页
        2.2.1 Material第48页
        2.2.2. Synthesis of high amylose starch-based wood adhesive (HASWA) with SEs第48-50页
        2.2.3. Intrinsic viscosity measurement第50页
        2.2.4. Shear adhesive strength test第50页
        2.2.5. Fourier transform infrared spectroscopy (FT-IR)第50-51页
        2.2.6. X-ray diffraction (XRD) analysis第51页
        2.2.7. Rheological properties of adhesive第51-52页
        2.2.8. Measurement of blue value第52页
        2.2.9. Differential scanning calorimetry (DSC) analysis第52页
        2.2.10. Transmission electron microscopy (TEM) analysis第52-53页
        2.2.11. Scanning electron microscopy (SEM) analysis第53页
        2.2.12. Thermogravimetric analysis (TGA)第53页
        2.2.13. Low-field nuclear magnetic resonance (LF-NMR) analysis第53-54页
        2.2.14. Statistical analysis第54页
    2.3. Results and discussion第54-77页
        2.3.1. Effects of SEs on mobility of HASWA第54-55页
        2.3.2. Effects of SEs addition on the viscosity stability of HASWA第55-56页
        2.3.3. Effects of SEs addition on the shear strength of HASWA第56-57页
        2.3.4. Effects of SEs addition on the shear strength of HASWA during storage第57-60页
        2.3.5. Structural characteristics of adhesive第60-63页
        2.3.6. Rheological characteristics of adhesive第63-67页
        2.3.7. The formation of amylose-SEs complexes in HASWA第67-69页
        2.3.8. Morphologies of adhesives第69-70页
        2.3.9. Thermal stability of HASWA第70-71页
        2.3.10. Effects of SEs addition on LF-NMR analysis第71-75页
        2.3.11. Effects of SEs addition on short term retrogradation behavior of HASWA第75-76页
        2.3.12. Effects of SEs on long term retrogradation of wood adhesive第76-77页
    2.4. Conclusion第77-79页
CHAPTER 3 Effects of different ionic and non-ionic emulsifiers on the bonding performance, freeze-thaw stability and retrogradation behavior of the resulting high amylose starch-based wood adhesive第79-104页
    3.1. Introduction第79-81页
    3.2. Material and methods第81-87页
        3.2.1. Materials第81页
        3.2.2. Synthesis of high amylose starch-based wood adhesive (HASWA)第81-82页
        3.2.3. Preparation of copolymer and determination of grafting parameters第82-83页
        3.2.4. Shear strength of wood adhesive第83页
        3.2.5. Influence of freeze-thawing on the stability of adhesive第83-84页
        3.2.6. ζ-potential analysis第84页
        3.2.7. Dynamic viscoelastic measurements第84页
        3.2.8. FT-IR spectroscopy第84-85页
        3.2.9. Low-field nuclear magnetic resonance (LF-NMR) analysis第85页
        3.2.10. X-ray diffraction (XRD) analysis第85-86页
        3.2.11. Transmission electron microscopy (TEM)第86页
        3.2.12. Statistical analysis第86-87页
    3.3. Results and discussion第87-103页
        3.3.1. Effects of different emulsifiers on the bonding characteristics of HASWA第87-88页
        3.3.2. Effects of emulsifiers on the F/T stability of HASWA第88-89页
        3.3.3. ζ-potential analysis第89-91页
        3.3.4. FT-IR spectroscopy第91-92页
        3.3.5. Dynamic viscoelastic measurements第92-95页
        3.3.6. Effect of emulsifier addition on LF-NMR第95-98页
        3.3.7. XRD pattern analysis第98-100页
        3.3.8. Morphologies of HASWA第100-103页
    3.4. Conclusion第103-104页
CHAPTER 4 Synthesis and characterization of starch-g-poly(vinyl acetate-co-butyl acrylate) bio-based wood adhesive derived from corn starch第104-124页
    4.1. Introduction第104-106页
    4.2. Material and methods第106-110页
        4.2.1. Materials第106页
        4.2.2. Preparation of graft-copolymerized starch-based wood adhesive第106-107页
        4.2.3. Preparation of copolymer and determination of grafting percent第107页
        4.2.4. Intrinsic viscosity measurement第107-108页
        4.2.5. Shear adhesive strength test第108页
        4.2.6. FT-IR Spectroscopy第108页
        4.2.7. 1H-NMR Analysis第108-109页
        4.2.8. Thermal gravimetric analysis (TGA)第109页
        4.2.9. Differential scanning calorimtery (DSC)第109页
        4.2.10. Transmission electron microscopy (TEM)第109页
        4.2.11. Scanning electron microscopy (SEM)第109-110页
        4.2.12. X-ray photoelectron spectroscopy (XPS) analysis第110页
        4.2.13. Statistical analysis第110页
    4.3. Results and discussion第110-123页
        4.3.1. Influence of co-monomer addition on the viscosity, shear strength and grafting percent of wood adhesive第110-113页
        4.3.2. FT-IR spectroscopy第113-114页
        4.3.3. ~1H-NMR analysis第114-115页
        4.3.4. Thermal analysis of wood adhesive第115-116页
        4.3.5. DSC analysis第116-117页
        4.3.6. Morphologies of wood adhesive第117-120页
        4.3.7. Grafting on wood adhesive surface determined by XPS analysis第120-123页
    4.4. Conclusion第123-124页
CHAPTER 5 Summary and recommendations第124-127页
    5.1. Summary第124-125页
    5.2. Recommendations第125-127页
References第127-149页
Acknowledgements第149-151页
List of publications第151-154页

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