先进功能材料丛书·聚多糖纳米晶:化学与应用

先进功能材料丛书·聚多糖纳米晶:化学与应用
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作者: , ,
2015-03
版次: 1
ISBN: 9787122229847
定价: 280.00
装帧: 精装
开本: 16开
纸张: 胶版纸
页数: 301页
字数: 656千字
正文语种: 简体中文
分类: 工程技术
2人买过
  •   《先进功能材料丛书·聚多糖纳米晶:化学与应用》采用简明的语言、丰富的数据图表,阐明了来自天然生物质资源的聚多糖纳米晶的提取、结构、性质、化学修饰、材料制备等方面的理论知识和实践经验,总结了聚多糖纳米晶改性材料功能化、高性能化的研究思路和技术方案。不仅包含作者在过去十年中以保护环境和降低石油消耗为目标,围绕可再生、可生物降解的聚多糖纳米晶发展成为高性能材料及功能材料的研究工作的凝练,同时涵盖了国内外同行的优秀研究成果。
      《先进功能材料丛书·聚多糖纳米晶:化学与应用》主要包括纤维素纳米晶、甲壳素纳米晶及淀粉纳米晶的制备、化学和物理改性、纳米复合材料和功能材料构建的相关理论和技术等内容,并且对聚多糖纳米晶的理论研究体系建立、应用拓展及发展方向等进行了展望。
      《先进功能材料丛书·聚多糖纳米晶:化学与应用》可供生物质化学与化工、高分子科学、环境科学、材料科学、农业化学、纳米科学与技术等相关专业的研究生学习使用,也可作为相关科研工作和工程技术人员的参考书。   黄进,博士、武汉理工大学教授、博士生导师,IUPAC、中国化学会、中国微米纳米技术学会纳米科学技术分会、中国毒理学会纳米毒理学专业委员会、中国生物材料委员会会员,先后受聘为中国科学院高级访问学者、法国Grenoble国立理工学院访问学者、华东师范大学兼职教授、武汉纺织大学客座教授,入选“教育部新世纪优秀人才支持计划”、“江苏省高层次创新创业人才引进计划”和“武汉市青年科技晨光计划”。 ·ListofContributorsXIII
    ForewordXV
    PrefaceXVII
    1PolysaccharideNanocrystals:CurrentStatusandProspectsinMateri
    Science
    JinHuang,PeterR.Chang,andAlainDufresne
    1.1IntroductiontoPolysaccharideNanocrystals
    1.2CurrentApplicationofPolysaccharideNanocrystalsinMaterial
    Science
    1.3ProspectsforPolysaccharideNanocrystal-BasedMaterials
    ListofAbbreviations
    References

    2StructureandPropertiesofPolysaccharideNanocrystals
    FeiHu,ShiyuFu,JinHuang,DebbieP.Anderson,andPeterR.Chang
    2.1Introduction
    2.2CelluloseNanocrystals
    2.2.1PreparationofCelluloseNanocrystals
    2.2.1.1AcidHydrolysisExtractionofCelluloseNanocrystals
    2.2.1.2EectsofAcidType
    2.2.1.3EectsofPretreatment
    2.2.2StructureandPropertiesofCelluloseNanocrystals
    2.2.2.1StructureandRigidityofCelluloseNanocrystals
    2.2.2.2PhysicalPropertiesofCelluloseNanocrystals
    2.3ChitinNanocrystals
    2.3.1PreparationofChitinNanocrystals
    2.3.1.1ExtractionofChitinNanocrystalsbyAcidHydrolysis
    2.3.1.2ExtractionofChitinNanocrystalsbyTEMPOOxidation
    2.3.2StructureandPropertiesofChitinNanocrystals
    2.3.2.1StructureandRigidityofChitinNanocrystals
    2.3.2.2PropertiesofChitinNanocrystalSuspensions
    2.4StarchNanocrystals
    2.4.1PreparationofStarchNanocrystals
    2.4.1.1ExtractionofStarchNanocrystalsbyAcidHydrolysis
    2.4.1.2EectofUltrasonicTreatment
    2.4.1.3EectofPretreatment
    2.4.2StructureandPropertiesofStarchNanocrystals
    2.4.2.1StructureofStarchNanocrystals
    2.4.2.2PropertiesofStarchNanocrystalSuspensions
    2.5ConclusionandProspects
    ListofAbbreviations
    References

    3SurfaceModicationofPolysaccharideNanocrystals
    NingLinandAlainDufresne
    3.1Introduction
    3.2SurfaceChemistryofPolysaccharideNanocrystals
    3.2.1SurfaceHydroxylGroups
    3.2.2SurfaceGroupsOriginatingfromVariousExtractionMethods
    3.3ApproachesandStrategiesforSurfaceModication
    3.3.1PurposeandChallengeofSurfaceModication
    3.3.2ComparisonofDierentApproachesandStrategiesofSurfaceModication
    3.4AdsorptionofSurfactant
    3.4.1AnionicSurfactant
    3.4.2CationicSurfactant
    3.4.3NonionicSurfactant
    3.5HydrophobicGroupsResultingfromChemicalDerivatization
    3.5.1AcetylandEsterGroupswithAcetylationandEsterication
    3.5.2CarboxylGroupsResultingfromTEMPO-MediatedOxidation
    3.5.3DerivatizationwithIsocyanateCarboamination
    3.5.4SilylGroupsResultingfromSilylation
    3.5.5CationicGroupsResultingfromCationization
    3.6PolymericChainsfromPhysicalAbsorptionorChemicalGrafting
    3.6.1HydrophilicPolymer
    3.6.2Polyester
    3.6.3Polyolen
    3.6.4BlockCopolymer
    3.6.5PolyurethaneandWaterbornePolyurethane
    3.6.6OtherHydrophobicPolymer
    3.7AdvancedFunctionalGroupsandModication
    3.7.1FluorescentandDyeMolecules
    3.7.2AminoAcidandDNA
    3.7.3Self-Cross-linkingofPolysaccharideNanocrystals
    3.7.4PhotobactericidalPorphyrinMolecule
    3.7.5ImidazoliumMolecule
    3.7.6CyclodextrinMoleculeandPluronicPolymer
    3.8ConcludingRemarks
    ListofAbbreviations
    References

    4PreparationofPolysaccharideNanocrystal-BasedNanocomposites
    Hou-YongYu,JinHuang,YouliChen,andPeterR.Chang
    4.1Introduction
    4.2Casting/EvaporationProcessing
    4.2.1SolutionCasting/EvaporationProcessing
    4.2.2SolutionCastinginAqueousMedium
    4.2.2.1DispersionStabilityofPolysaccharideNanocrystalsinAqueous
    Medium
    4.2.2.2BlendingwithHydrophilicPolymers
    4.2.2.3BlendingwithHydrophobicPolymers
    4.2.3SolutionCastinginOrganicMedium
    4.2.3.1DispersionStabilityofPolysaccharideNanocrystalsinOrganicMedium
    4.2.3.2BlendingwithPolymersinOrganicSolvent
    4.3hermoprocessingMethods
    4.3.1hermoplasticMaterialsModiedwithPolysaccharide
    Nanocrystals
    4.3.2InuenceofSurfaceModicationofPolysaccharideNanocrystalson
    Nanocompositehermoprocessing
    4.4PreparationofNanobersbyElectrospinningTechnology
    4.4.1ElectrospinningTechnology
    4.4.1.1Concepts
    4.4.1.2FormationProcessofNanobers
    4.4.1.3BasicElectrospinningParametersandDevices
    4.4.1.4NewlyEmergingElectrospinningTechniques
    4.4.2NanocompositeNanobersFilledwithPolysaccharide
    Nanocrystals
    4.4.2.1ElectrospunNanobersinAqueousMedium
    4.4.2.2ElectrospunNanobersinNon-aqueousMedium
    4.5Sol-GelMethod
    4.5.1ConceptsofSol-GelProcess
    4.5.2PolysaccharideNanocrystal-Basedor-DerivedNanocomposites
    PreparedbySol-GelMethod
    4.5.3ChiralNanocompositesUsingCelluloseNanocrystalTemplate
    4.5.3.1InorganicChiralMaterialsBasedonCelluloseNanocrystal
    Template
    4.5.3.2ChiralPorousMaterials
    4.5.3.3ChiralPorousCarbonMaterials
    4.5.3.4MetalNanoparticle-DecoratedChiralNematicMaterials
    4.6Self-AssemblyMethod
    4.6.1OverviewofSelf-AssemblyMethod
    4.6.2Self-AssemblyMethodTowardPolysaccharide
    Nanocrystal-ModiedMaterials
    4.6.2.1Self-AssemblyofPolysaccharideNanocrystalsinAqueous
    Medium
    4.6.2.2Self-AssemblyofPolysaccharideNanocrystalsinOrganic
    Medium
    4.6.2.3Self-AssemblyofPolysaccharideNanocrystalsinSolidFilm
    4.6.3PolysaccharideNanocrystal-ModiedMaterialsPreparedbyLBL
    Method
    4.7OtherMethodsandProspects
    ListofAbbreviations
    References

    5PolysaccharideNanocrystal-ReinforcedNanocomposites
    HaniehKargarzadehandIshakAhmad
    5.1Introduction
    5.2Rubber-BasedNanocomposites
    5.3Polyolen-BasedNanocomposites
    5.4PolyurethaneandWaterbornePolyurethane-Based
    Nanocomposites
    5.5Polyester-BasedNanocomposites
    5.6Starch-BasedNanocomposites
    5.7Protein-BasedNanocomposites
    5.8ConcludingRemarks
    ListofAbbreviations
    References

    6PolysaccharideNanocrystals-BasedMaterialsforAdvanced
    Applications
    NingLin,JinHuang,andAlainDufresne
    6.1Introduction
    6.2SurfaceCharacteristicsInducedFunctionalNanomaterials
    6.2.1ActiveGroups
    6.2.1.1ImportingFunctionalGroupsorMolecules
    6.2.1.2TemplateforSynthesizingInorganicNanoparticles
    6.2.2SurfaceChargesandHydrophilicity
    6.2.2.1EmulsionNanostabilizer
    6.2.2.2High-EciencyAdsorption
    6.2.2.3PermselectiveMembrane
    6.2.3NanoscaleandHighSurfaceArea
    6.2.3.1SurfaceCellCultivation
    6.2.3.2WaterDecontamination
    6.3Nano-ReinforcingEectsinFunctionalNanomaterials
    6.3.1SoftMatter
    6.3.1.1Hydrogel
    6.3.1.2Sponge,Foam,Aerogel,andTissue-EngineeringNanosca?old
    6.3.2SpecialMechanicalMaterials
    6.3.3Self-HealableandShape-MemoryMaterials
    6.3.4PolymericElectrolytesandBattery
    6.3.5Semi-conductingMaterial
    6.4OpticalMaterialsDerivedfromLiquidCrystallineProperty
    6.5SpecialFilmsandSystemsAscribedtoBarrierProperty
    6.5.1DrugDelivery-BarrierforDrugMolecules
    6.5.2BarrierNanocomposites-BarrierforWaterandOxygen
    6.6OtherFunctionalApplications
    6.7ConcludingRemarks
    ListofAbbreviations
    References

    7CharacterizationofPolysaccharideNanocrystal-BasedMaterials
    AlainDufresneandNingLin
    7.1Introduction
    7.2MechanicalPropertiesofPolysaccharideNanocrystals
    7.2.1IntrinsicMechanicalPropertiesofPolysaccharide
    Nanocrystals
    7.2.2MechanicalPropertiesofPolysaccharideNanocrystalFilms
    7.3DispersionofPolysaccharideNanocrystals
    7.3.1ObservationofPolysaccharideNanocrystalsinMatrix
    7.3.2hree-DimensionalNetworkofPolysaccharideNanocrystals
    7.4MechanicalPropertiesofPolysaccharideNanocrystal-Based
    Materials
    7.4.1InuenceoftheMorphologyandDimensionsofthe
    Nanocrystals
    7.4.2InuenceoftheProcessingMethod
    7.5PolysaccharideNanocrystal/MatrixInterfacialInteractions
    7.6hermalPropertiesofPolysaccharideNanocrystal-Based
    Materials
    7.6.1hermalPropertiesofPolysaccharideNanocrystals
    7.6.2GlassTransitionofPolysaccharideNanocrystal-Based
    Nanocomposites
    7.6.3Melting/CrystallizationTemperatureofPolysaccharide
    Nanocrystal-BasedNanocomposites
    7.6.4hermalStabilityofPolysaccharideNanocrystal-Based
    Nanocomposites
    7.7BarrierPropertiesofPolysaccharideNanocrystal-Based
    Materials
    7.7.1BarrierPropertiesofPolysaccharideNanocrystalFilms
    7.7.2SwellingandSorptionPropertiesofPolysaccharide
    Nanocrystal-BasedNanocomposites
    7.7.3WaterVaporTransferandPermeabilityofPolysaccharide
    Nanocrystal-BasedNanocomposites
    7.7.4GasPermeabilityofPolysaccharideNanocrystal-Based
    Nanocomposites
    7.8ConcludingRemarks
    ListofAbbreviations
    References
    Index
  • 内容简介:
      《先进功能材料丛书·聚多糖纳米晶:化学与应用》采用简明的语言、丰富的数据图表,阐明了来自天然生物质资源的聚多糖纳米晶的提取、结构、性质、化学修饰、材料制备等方面的理论知识和实践经验,总结了聚多糖纳米晶改性材料功能化、高性能化的研究思路和技术方案。不仅包含作者在过去十年中以保护环境和降低石油消耗为目标,围绕可再生、可生物降解的聚多糖纳米晶发展成为高性能材料及功能材料的研究工作的凝练,同时涵盖了国内外同行的优秀研究成果。
      《先进功能材料丛书·聚多糖纳米晶:化学与应用》主要包括纤维素纳米晶、甲壳素纳米晶及淀粉纳米晶的制备、化学和物理改性、纳米复合材料和功能材料构建的相关理论和技术等内容,并且对聚多糖纳米晶的理论研究体系建立、应用拓展及发展方向等进行了展望。
      《先进功能材料丛书·聚多糖纳米晶:化学与应用》可供生物质化学与化工、高分子科学、环境科学、材料科学、农业化学、纳米科学与技术等相关专业的研究生学习使用,也可作为相关科研工作和工程技术人员的参考书。
  • 作者简介:
      黄进,博士、武汉理工大学教授、博士生导师,IUPAC、中国化学会、中国微米纳米技术学会纳米科学技术分会、中国毒理学会纳米毒理学专业委员会、中国生物材料委员会会员,先后受聘为中国科学院高级访问学者、法国Grenoble国立理工学院访问学者、华东师范大学兼职教授、武汉纺织大学客座教授,入选“教育部新世纪优秀人才支持计划”、“江苏省高层次创新创业人才引进计划”和“武汉市青年科技晨光计划”。
  • 目录:
    ·ListofContributorsXIII
    ForewordXV
    PrefaceXVII
    1PolysaccharideNanocrystals:CurrentStatusandProspectsinMateri
    Science
    JinHuang,PeterR.Chang,andAlainDufresne
    1.1IntroductiontoPolysaccharideNanocrystals
    1.2CurrentApplicationofPolysaccharideNanocrystalsinMaterial
    Science
    1.3ProspectsforPolysaccharideNanocrystal-BasedMaterials
    ListofAbbreviations
    References

    2StructureandPropertiesofPolysaccharideNanocrystals
    FeiHu,ShiyuFu,JinHuang,DebbieP.Anderson,andPeterR.Chang
    2.1Introduction
    2.2CelluloseNanocrystals
    2.2.1PreparationofCelluloseNanocrystals
    2.2.1.1AcidHydrolysisExtractionofCelluloseNanocrystals
    2.2.1.2EectsofAcidType
    2.2.1.3EectsofPretreatment
    2.2.2StructureandPropertiesofCelluloseNanocrystals
    2.2.2.1StructureandRigidityofCelluloseNanocrystals
    2.2.2.2PhysicalPropertiesofCelluloseNanocrystals
    2.3ChitinNanocrystals
    2.3.1PreparationofChitinNanocrystals
    2.3.1.1ExtractionofChitinNanocrystalsbyAcidHydrolysis
    2.3.1.2ExtractionofChitinNanocrystalsbyTEMPOOxidation
    2.3.2StructureandPropertiesofChitinNanocrystals
    2.3.2.1StructureandRigidityofChitinNanocrystals
    2.3.2.2PropertiesofChitinNanocrystalSuspensions
    2.4StarchNanocrystals
    2.4.1PreparationofStarchNanocrystals
    2.4.1.1ExtractionofStarchNanocrystalsbyAcidHydrolysis
    2.4.1.2EectofUltrasonicTreatment
    2.4.1.3EectofPretreatment
    2.4.2StructureandPropertiesofStarchNanocrystals
    2.4.2.1StructureofStarchNanocrystals
    2.4.2.2PropertiesofStarchNanocrystalSuspensions
    2.5ConclusionandProspects
    ListofAbbreviations
    References

    3SurfaceModicationofPolysaccharideNanocrystals
    NingLinandAlainDufresne
    3.1Introduction
    3.2SurfaceChemistryofPolysaccharideNanocrystals
    3.2.1SurfaceHydroxylGroups
    3.2.2SurfaceGroupsOriginatingfromVariousExtractionMethods
    3.3ApproachesandStrategiesforSurfaceModication
    3.3.1PurposeandChallengeofSurfaceModication
    3.3.2ComparisonofDierentApproachesandStrategiesofSurfaceModication
    3.4AdsorptionofSurfactant
    3.4.1AnionicSurfactant
    3.4.2CationicSurfactant
    3.4.3NonionicSurfactant
    3.5HydrophobicGroupsResultingfromChemicalDerivatization
    3.5.1AcetylandEsterGroupswithAcetylationandEsterication
    3.5.2CarboxylGroupsResultingfromTEMPO-MediatedOxidation
    3.5.3DerivatizationwithIsocyanateCarboamination
    3.5.4SilylGroupsResultingfromSilylation
    3.5.5CationicGroupsResultingfromCationization
    3.6PolymericChainsfromPhysicalAbsorptionorChemicalGrafting
    3.6.1HydrophilicPolymer
    3.6.2Polyester
    3.6.3Polyolen
    3.6.4BlockCopolymer
    3.6.5PolyurethaneandWaterbornePolyurethane
    3.6.6OtherHydrophobicPolymer
    3.7AdvancedFunctionalGroupsandModication
    3.7.1FluorescentandDyeMolecules
    3.7.2AminoAcidandDNA
    3.7.3Self-Cross-linkingofPolysaccharideNanocrystals
    3.7.4PhotobactericidalPorphyrinMolecule
    3.7.5ImidazoliumMolecule
    3.7.6CyclodextrinMoleculeandPluronicPolymer
    3.8ConcludingRemarks
    ListofAbbreviations
    References

    4PreparationofPolysaccharideNanocrystal-BasedNanocomposites
    Hou-YongYu,JinHuang,YouliChen,andPeterR.Chang
    4.1Introduction
    4.2Casting/EvaporationProcessing
    4.2.1SolutionCasting/EvaporationProcessing
    4.2.2SolutionCastinginAqueousMedium
    4.2.2.1DispersionStabilityofPolysaccharideNanocrystalsinAqueous
    Medium
    4.2.2.2BlendingwithHydrophilicPolymers
    4.2.2.3BlendingwithHydrophobicPolymers
    4.2.3SolutionCastinginOrganicMedium
    4.2.3.1DispersionStabilityofPolysaccharideNanocrystalsinOrganicMedium
    4.2.3.2BlendingwithPolymersinOrganicSolvent
    4.3hermoprocessingMethods
    4.3.1hermoplasticMaterialsModiedwithPolysaccharide
    Nanocrystals
    4.3.2InuenceofSurfaceModicationofPolysaccharideNanocrystalson
    Nanocompositehermoprocessing
    4.4PreparationofNanobersbyElectrospinningTechnology
    4.4.1ElectrospinningTechnology
    4.4.1.1Concepts
    4.4.1.2FormationProcessofNanobers
    4.4.1.3BasicElectrospinningParametersandDevices
    4.4.1.4NewlyEmergingElectrospinningTechniques
    4.4.2NanocompositeNanobersFilledwithPolysaccharide
    Nanocrystals
    4.4.2.1ElectrospunNanobersinAqueousMedium
    4.4.2.2ElectrospunNanobersinNon-aqueousMedium
    4.5Sol-GelMethod
    4.5.1ConceptsofSol-GelProcess
    4.5.2PolysaccharideNanocrystal-Basedor-DerivedNanocomposites
    PreparedbySol-GelMethod
    4.5.3ChiralNanocompositesUsingCelluloseNanocrystalTemplate
    4.5.3.1InorganicChiralMaterialsBasedonCelluloseNanocrystal
    Template
    4.5.3.2ChiralPorousMaterials
    4.5.3.3ChiralPorousCarbonMaterials
    4.5.3.4MetalNanoparticle-DecoratedChiralNematicMaterials
    4.6Self-AssemblyMethod
    4.6.1OverviewofSelf-AssemblyMethod
    4.6.2Self-AssemblyMethodTowardPolysaccharide
    Nanocrystal-ModiedMaterials
    4.6.2.1Self-AssemblyofPolysaccharideNanocrystalsinAqueous
    Medium
    4.6.2.2Self-AssemblyofPolysaccharideNanocrystalsinOrganic
    Medium
    4.6.2.3Self-AssemblyofPolysaccharideNanocrystalsinSolidFilm
    4.6.3PolysaccharideNanocrystal-ModiedMaterialsPreparedbyLBL
    Method
    4.7OtherMethodsandProspects
    ListofAbbreviations
    References

    5PolysaccharideNanocrystal-ReinforcedNanocomposites
    HaniehKargarzadehandIshakAhmad
    5.1Introduction
    5.2Rubber-BasedNanocomposites
    5.3Polyolen-BasedNanocomposites
    5.4PolyurethaneandWaterbornePolyurethane-Based
    Nanocomposites
    5.5Polyester-BasedNanocomposites
    5.6Starch-BasedNanocomposites
    5.7Protein-BasedNanocomposites
    5.8ConcludingRemarks
    ListofAbbreviations
    References

    6PolysaccharideNanocrystals-BasedMaterialsforAdvanced
    Applications
    NingLin,JinHuang,andAlainDufresne
    6.1Introduction
    6.2SurfaceCharacteristicsInducedFunctionalNanomaterials
    6.2.1ActiveGroups
    6.2.1.1ImportingFunctionalGroupsorMolecules
    6.2.1.2TemplateforSynthesizingInorganicNanoparticles
    6.2.2SurfaceChargesandHydrophilicity
    6.2.2.1EmulsionNanostabilizer
    6.2.2.2High-EciencyAdsorption
    6.2.2.3PermselectiveMembrane
    6.2.3NanoscaleandHighSurfaceArea
    6.2.3.1SurfaceCellCultivation
    6.2.3.2WaterDecontamination
    6.3Nano-ReinforcingEectsinFunctionalNanomaterials
    6.3.1SoftMatter
    6.3.1.1Hydrogel
    6.3.1.2Sponge,Foam,Aerogel,andTissue-EngineeringNanosca?old
    6.3.2SpecialMechanicalMaterials
    6.3.3Self-HealableandShape-MemoryMaterials
    6.3.4PolymericElectrolytesandBattery
    6.3.5Semi-conductingMaterial
    6.4OpticalMaterialsDerivedfromLiquidCrystallineProperty
    6.5SpecialFilmsandSystemsAscribedtoBarrierProperty
    6.5.1DrugDelivery-BarrierforDrugMolecules
    6.5.2BarrierNanocomposites-BarrierforWaterandOxygen
    6.6OtherFunctionalApplications
    6.7ConcludingRemarks
    ListofAbbreviations
    References

    7CharacterizationofPolysaccharideNanocrystal-BasedMaterials
    AlainDufresneandNingLin
    7.1Introduction
    7.2MechanicalPropertiesofPolysaccharideNanocrystals
    7.2.1IntrinsicMechanicalPropertiesofPolysaccharide
    Nanocrystals
    7.2.2MechanicalPropertiesofPolysaccharideNanocrystalFilms
    7.3DispersionofPolysaccharideNanocrystals
    7.3.1ObservationofPolysaccharideNanocrystalsinMatrix
    7.3.2hree-DimensionalNetworkofPolysaccharideNanocrystals
    7.4MechanicalPropertiesofPolysaccharideNanocrystal-Based
    Materials
    7.4.1InuenceoftheMorphologyandDimensionsofthe
    Nanocrystals
    7.4.2InuenceoftheProcessingMethod
    7.5PolysaccharideNanocrystal/MatrixInterfacialInteractions
    7.6hermalPropertiesofPolysaccharideNanocrystal-Based
    Materials
    7.6.1hermalPropertiesofPolysaccharideNanocrystals
    7.6.2GlassTransitionofPolysaccharideNanocrystal-Based
    Nanocomposites
    7.6.3Melting/CrystallizationTemperatureofPolysaccharide
    Nanocrystal-BasedNanocomposites
    7.6.4hermalStabilityofPolysaccharideNanocrystal-Based
    Nanocomposites
    7.7BarrierPropertiesofPolysaccharideNanocrystal-Based
    Materials
    7.7.1BarrierPropertiesofPolysaccharideNanocrystalFilms
    7.7.2SwellingandSorptionPropertiesofPolysaccharide
    Nanocrystal-BasedNanocomposites
    7.7.3WaterVaporTransferandPermeabilityofPolysaccharide
    Nanocrystal-BasedNanocomposites
    7.7.4GasPermeabilityofPolysaccharideNanocrystal-Based
    Nanocomposites
    7.8ConcludingRemarks
    ListofAbbreviations
    References
    Index
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