Nanotechnological Approaches in Food Microbiology


Mathematical Models and Kinetic Studies for the Assessment of Antimicrobial Properties of Metal NanoparticlesIntroductionHistoryClassification of NanoparticlesNanoparticles Based on OriginNanoparticle Use in Antimicrobials (Basics)Titanium Dioxide–Based NanocompositesSilver-Based NanocompositesZinc Oxide–Based NanocompositeBarrier PropertiesKinetic Model for the Analysis of the Antimicrobial Activity of NanoparticlesEffect of Particle and Size DeterminationAntimicrobial EfficacyKinetic Model for the Release Rate of NanoparticlesTwo-Step Release ProfileModel Based on the Arrhenius EquationLangmuir–Hinshelwood Mechanism of AdsorptionGompertz and Logistics Modified ModelNegative Sigmoid ModelThe Logistic Model With a Shift in Lag PhaseWeibull ModelBiphasic EquationAlternative Death ModelsModels for the Optimization of the Chemical Vapor Synthesis of NanoparticlesMethods Using the Solid PrecursorMethods Using Vapor or Liquid PrecursorConclusionReferencesMushroom Extract–Reduced Metal Nanoparticles: An Effective Approach Against Food Pathogenic BacteriaIntroductionGreen Synthesis of NPsMechanism of Mycosynthesis of NanoparticlesEffect of Different Factors Upon the Synthesis of NanoparticlesCharacterization of Synthesized NanoparticlesChemical CharacterizationOptical SpectroscopyOptical Absorption SpectroscopyPhotoluminescence SpectroscopyEnergy-Dispersive X-Ray SpectroscopyStructural CharacterizationX-Ray Diffraction TechniqueScanning Electron MicroscopyTransmission Electron MicroscopyAtomic Force MicroscopyDifferential Scanning CalorimetryApplication of Myconanoparticles Against Food Pathogenic BacteriaFood Pathogenic Bacteria and Their Effect on HealthResistance of Foodborne Bacteria Against AntibioticsMechanism of Action of Myconanoparticles Against Food Pathogenic BacteriaConclusionReferencesAntimicrobial Efficacy of Neem Extract–Stabilized Metal NanoparticlesIntroductionDifferent Types of NanoparticlesGreen Synthesis of NanoparticlesTechniques for the Characterization of NanoparticlesApplications of NanoparticlesAZADIRACHTA INDICA MEDIATED SYNTHESIS OF METALLIC NANOPARTICLESAntimicrobial Potential of Biosynthesized of NanoparticlesMechanism of Antimicrobial ActivityConclusionReferencesMetal Nanoparticles of Microbial Origin and Their Antimicrobial Applications in Food IndustriesIntroductionRoutes for the Synthesis of NanostructuresChemical SynthesisBiological SynthesisBiosynthesis of Metal Nanoparticles Using BacteriaMetal Nanoparticle Synthesis by Lactic Acid BacteriaYeast in Nanoparticle SynthesisViruses in Nanoparticle SynthesisFungi in Nanoparticle SynthesisNanoparticle Synthesis ProcessCharacterization of NanoparticlesNeed for Green SynthesisFactors Associated With Microbial Synthesis of Metal NanoparticlesSelection of the Best MicroorganismSelection of the Biocatalyst StateOptimal Conditions for Cell Growth and Enzyme ActivityOptimal Reaction ConditionsExtraction and Purification ProcessesStabilization of the Produced NanoparticlesScaling Up the Laboratory Process to the Industrial ScaleApplication of Nanoparticles in Food and Pharmaceutical IndustryNanoparticles as a Potent Antimicrobial AgentNanoparticles for Detection and Destruction of PesticidesNanoparticles in Drug DeliveryNanoparticles in Medicine and HealthcareNanoparticles in Cancer TreatmentNanoparticles in AgricultureNanotechnology for Crop BiotechnologyConclusionReferencesA Way Forward With Nano-Antimicrobials as Food Safety and Preservation Concern A Look at the Ongoing TrendsIntroductionClassification of NSMsCurrent Scenario and Ongoing TrendsBIOCHEMICAL AND CELLULAR MECHANISMSSynthesis of NanoparticlesMechanism—Nanoparticle Conjugation With ChitosanNANOCARRIERS FOR ANTIMICROBIALSNano-Encapsulated SystemsProduction Technology in UseNanocarrier SystemsNanoantimicrobials Food Applications (Commercial View)IMPROVEMENT OF NANOANTIMICROBIALSReferencesBiogenic Nanoparticles: A New Paradigm for Treating Infectious Diseases in the Era of Antibiotic ResistanceIntroductionMetal Nanoparticles—OverviewSynthesis of NanoparticlesMethods Commonly Used for Nanoparticles SynthesisSynthesis of Nanoparticles by the Physical MethodSynthesis of Nanoparticles by the Chemical MethodSynthesis of Nanoparticles by the Biological MethodSynthesis of Nanoparticles From FungiSynthesis of NPs From BacteriaSynthesis of NPs by Plant SourceMechanism of SynthesisCharacterizationApplications of NanoparticlesAntimicrobial Activity of NanoparticlesAntimicrobial Mechanism of Metallic NanoparticlesFactors Affecting the Antimicrobial Activity of Nanoparticles’ Concentration and SizeBiogenic Metallic Nanoparticles for Antibacterial ApplicationsSilver NanoparticlesGold NanoparticlesCopper Oxide NanoparticlesZinc Oxide NanoparticlesTitanium Dioxide NanoparticlesMagnesium Oxide NanoparticlesConcluding Remarks and Future PerspectivesReferencesNanoparticles and Antibiotic Drug Composite A Novel Approach Towards Antimicrobial ActivityIntroductionAntibacterial Resistance Against AntibioticsMechanism of Resistance to AntibioticsModification or Degradation of Antibiotic MoleculesChemical Modification/AlterationDestruction in the Chemical Structure of AntibioticsEfflux PumpsEfflux Pump and Antibiotic ResistanceAntimicrobial Resistance by Target Site ProtectionMechanism of Action of Nanoparticles Against Pathogenic MicroorganismsMechanism of Action of Silver Nanoparticles Against Pathogenic MicroorganismsMechanism of Action of Zinc Oxide Nanoparticles Against Pathogenic MicroorganismsNanoparticles as the Carrier for Antibiotic DrugsConclusionReferencesNanoemulsions of Plant-Based Bioactive Compounds Synthesis, Properties, and ApplicationsIntroductionMajor Components of Nanoemulsions SystemOil Phase and Aqueous PhaseStabilizersWeighting AgentsTexture ModifierA Ripening InhibitorEmulsifiers/SurfactantDestabilization of Nanoemulsion SystemGravitational SeparationFlocculation and CoalescenceOstwald RipeningNanoemulsions Preparation MethodsHigh-Energy-Based MethodsHigh-Pressure Valve HomogenizersUltrasonic Homogenization NanoemulsionsMicrofluidizationColloid MillsLow-Energy-Based MethodsSpontaneous EmulsionPhase Inversion CompositionPhase Inversion TemperaturePlant-Derived Bioactive Compound–Based Nanoemulsions and Their Applications in Food IndustriesPolyphenolic CompoundsFlavonoidsFlavonolsFlavanonesIsoflavonoidsFlavonesFlavan-3-olAnthocyanins and AnthocyanidinsPhenolic AcidsTanninsLignansStilbeneEssential OilsConclusionReferencesEssential Oil Nanoemulsions As Natural Antimicrobial AgentsIntroductionMajor Challenges Associated With Food Application of Essential Oil NanoemulsionComposition and Characteristics of Essential OilsAntimicrobial Efficacy of Essential OilsPreparation of NanoemulsionsTypes of Delivery Systems Used for NanoemulsionsUse of Nanoemulsions as Edible Coating on FoodsAntimicrobial Potential of Essential Oil NanoemulsionsMechanism of Action of AntimicrobialsFactors Influencing Antimicrobial Efficiency of NanoemulsionsSafety and Regulatory Issues Regarding NanoemulsionsConcluding RemarksReferencesNanoemulsions Formulated With Cinnamon Oil and Their Antimicrobial ApplicationsIntroductionNanoemulsionOrganic PhaseAqueous PhaseInstability of NanoemulsionRole of SurfactantsNanoemulsion FormationHigh-Energy EmulsificationLow-Energy EmulsificationAntimicrobial Activity of NanoemulsionsMechanism of Action Against AntimicrobialsCinnamon Oil Nanoemulsions and Their Antimicrobial ActivityAdvantages of Plant-Based AntimicrobialsConclusionReferencesApplications, Formulations, Antimicrobial Efficacy, and Regulations of Essential Oils Nanoemulsions in FoodIntroductionMethods for Formulation and Preparation of NanoemulsionsProperties and Composition of Essential OilsMethod of Fabrication of Essential Oil NanoemulsionsTop-Down FabricationBottom-Up FabricationAntimicrobial Efficacy of Essential Oil NanoemulsionsModes of Actions of Essential OilsAntimicrobial Activity of Nanoemulsions Against Numerous MicrobesBacteriaFungusApplication of Oil Nanoemulsions in the Food IndustryRegulationsConclusionReferencesAntimicrobial Efficacy of Essential Oil NanoemulsionsIntroductionChemistry of Essential OilsLimitations in the Use of Essential Oils for Biological ActivityEncapsulation of Essential Oils by “Nanotechnology” ApproachPolymer-Based Delivery of EOsLipid-Based Delivery of EOsSolid-Lipid NanoparticlesLiposomesMolecular Complex Delivery of EOsMicro- and Nanoemulsion Delivery of EOsMechanism of Action of Nanoemulsions Encapsulating Essential OilsAntimicrobial Activity of Nanoemulsified Essential OilsAntibacterial Effects of Nanoemulsified Essential OilsAntifungal Effects of Nanoemulsified Essential OilsAntiviral Effects of Nanoemulsified Essential OilsAntiprotozoal Effects of Essential OilsFuture PerspectivesConclusionReferencesNanotechnologies in Food Microbiology Overview, Recent Developments, and ChallengesIntroductionNanoencapsulation TechnologiesNanoliposomesNanoemulsionsSolid-Lipid NanoparticlesNanostructured Lipid CarriersNanocapsulesCoacervationIonic GelationSpray-DryingBenefits and ApplicationsPerspectiveS and Challenges in NanotechnologyConclusionReferencesNanocapsules as Potential Antimicrobial Agents in FoodIntroductionFabrication of NanocapsulesNano-Encapsulation in the Food IndustryFood Antimicrobial NanocapsulesMechanismAdvantagesShortcomingsNanocapsules and Foodborne MicroorganismsNanofibersSolid-Lipid NanoparticlesNanospheresConclusion and Future ProspectsReferencesNano-Starch Films as Effective Antimicrobial Packaging MaterialIntroductionBiopolymers as Packaging MaterialStarch as Base for Antimicrobial PackagingCharacterization of Starch NanoparticlesMorphological CharacteristicsCrystallinityRheological PropertiesThermal Transition PropertiesProperties of Nano-Starch-Based Antimicrobial BiopolymersMechanical PropertiesBarrier PropertiesOptical PropertiesAntimicrobial PropertiesAntimicrobial Agents Used in Starch-Based Packaging MaterialChemical AgentsEssential OilsPlant and Spice ExtractsEnzymeBacteriocinsProbioticsEthylenediaminetetraacetic AcidApplications of Nano-Starch-Based Antimicrobial Packaging MaterialFood IndustryFruits and VegetablesSeafoodMeat ProductsMedicalAgricultureConclusionReferencesStarch Bio-Nanocomposite Films as Effective Antimicrobial Packaging MaterialIntroductionBiodegradation ProcessBio-Nanocomposite Films ConceptBio-Nanocomposite Materials for Food PackagingTypes of NanofillersOrganic NanofillersInorganic NanofillersTechniques Used to Manufacture Nano-Starch FilmsEffects of Nanomaterials on the Functional Properties of Starch FilmsEffects of Nanofillers on the Physical PropertiesEffects of Nanofillers on the Antimicrobial ActivityEffects of Nanofillers on the Mechanical PropertiesNanoparticle MigrationConclusionReferencesBiogenic Metal Nanoparticles and Their Antimicrobial PropertiesIntroductionMetal NanoparticlesMetallic NanoparticlesBiogenic Metal NanoparticlesAntimicrobial Effects of Biogenic Metal NanoparticlesCopper NanoparticlesGold NanoparticlesSilver NanoparticlesZinc NanoparticlesConclusionReferencesEnhanced Antimicrobial Efficacy of Essential Oils–Based NanoemulsionsNanoemulsionsDevelopment of NanoemulsionsMethodsEssential OilsCharacterization of NanoemulsionsApplication of Nanoemulsions as Antimicrobial AgentsCellular Absorption MechanismsSeveral Studies of Nanoemulsions With Different MicroorganismsConclusionReferencesNano-Starch Films as Effective Antimicrobial Packaging MaterialsIntroductionSynthesis Process of Nano-StarchCharacterization of the Nano-StarchAntimicrobial Efficacy of the Nano-Starch-Based Packaging FilmsNatural SourcesMetal SourcesConclusionReferences
 
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