Phase separation of organic/inorganic hybrids induced by calcination: A novel route for synthesizing mesoporous silica and carbon materials

Keyphrases

• Phase Separation 100%
• Calcination 100%
• Organic-inorganic Hybrid 100%
• Mesoporous Silica Materials 100%
• Mesoporous Carbon Materials 100%
• Tetraethyl Orthosilicate 66%
• Polyvinyl Alcohol 66%
• Silica 33%
• Ethanol 33%
• 1H NMR Spectra 33%
• Mesopore 33%
• Dimethyl Sulfoxide 33%
• Pore Size Distribution 33%
• Worm-like 33%
• Mesoporous Materials 33%
• Mesostructure 33%
• BET Surface Area 33%
• Solvothermal 33%
• Induced Phase Separation 33%
• Uniform Pore Size 33%
• Nitrogen Isotherm 33%
• Combined Characterization 33%
• Solvothermal Treatment 33%

Material Science

• Calcination 100%
• Mesoporous Silica 100%
• Polymerization 100%
• Tetraethyl Orthosilicate 100%
• Nuclear Magnetic Resonance 50%
• Silicon Dioxide 50%
• X-Ray Diffraction 50%
• Pore Size Distribution 50%
• Mesoporous Material 50%

Chemical Engineering

• Polymerization 100%
• Phase Separation 100%
• Calcination 100%
• Polyvinyl Alcohol 100%
• Dimethyl Sulfoxide 50%
• Mesopore 50%