Anatase-TiO₂ nanomaterials: Morphological/size dependence of the crystallization and phase behavior phenomena

Keyphrases

• Phase Behavior 100%
• Size Dependence 100%
• Crystallization Behavior 100%
• Anatase TiO2 100%
• TiO2 Nanomaterials 100%
• Crystallization 66%
• Anatase Structure 66%
• Solid Precursor 66%
• Anatase 66%
• Structural Properties 33%
• Micro-sized 33%
• Room Temperature 33%
• Surfactant 33%
• Rutile 33%
• Raman Spectroscopy 33%
• Morphological Properties 33%
• Bulk Material 33%
• Distinctive Features 33%
• Grain Growth 33%
• Mechanistic Properties 33%
• Extended X-ray Absorption Fine Structure (EXAFS) 33%
• X-ray Absorption Near Edge Structure (XANES) 33%
• Microemulsion 33%
• In Situ X-ray Diffraction 33%
• Activation Energy 33%
• Onset Temperature 33%
• Amorphous Solids 33%
• Primary Particle Size 33%
• Surface Layer 33%
• Molar Ratio 33%
• Dry Air 33%
• Solid Materials 33%
• Crystallization Mechanism 33%
• X-ray Absorption 33%
• Avrami 33%
• Infrared Study 33%
• Conclusive Evidence 33%
• TiO2 Materials 33%
• Nucleation Mechanism 33%
• Kinetic Equation 33%
• Surface nucleation 33%
• Growth Mechanism 33%
• Hydration Characteristics 33%
• Anatase Nanoparticles 33%
• Nanoscale Regime 33%

Engineering

• Nanomaterial 100%
• Ray Absorption 100%
• Nanoparticle 33%
• Nanometre 33%
• Room Temperature 33%
• Surfactant 33%
• Structural Property 33%
• Ray Diffraction 33%
• Bulk Material 33%
• Activation Energy 33%
• Microemulsion 33%
• Growth Mechanism 33%
• Dry Air 33%
• Solid Material 33%
• Amorphous Solid 33%
• Kinetic Equation 33%
• Surface Layer 33%
• Nucleation Mechanism 33%
• Molar Ratio 33%
• Onset Temperature 33%
• Physical Basis 33%

Material Science

• Nanocrystalline Material 100%
• Nucleation 100%
• Titanium Dioxide 100%
• Morphology 100%
• Nanoparticle 33%
• Surface Active Agent 33%
• Raman Spectroscopy 33%
• Structural Property 33%
• Amorphous Material 33%
• X-Ray Diffraction 33%
• Activation Energy 33%
• Extended X-Ray Absorption Fine Structure 33%
• X-Ray Absorption near Edge Structure 33%
• Microemulsions 33%