Oxidation of alcohols using supported gold and gold-palladium nanoparticles

Keyphrases

• Alcohol Oxidation 100%
• Supported Gold 100%
• Gold-palladium Nanoparticles 100%
• Organic Reactions 100%
• Reaction Pathway 50%
• Recent Advances 50%
• High Activity 50%
• Catalytic Activity 50%
• Toluene 50%
• Molecular Oxygen 50%
• Rate Measurement 50%
• Overall Process 50%
• Carbonyl Compounds 50%
• Deuterium Labeling 50%
• Solvent-free Conditions 50%
• Oxidation Reaction 50%
• Benzaldehyde 50%
• Palladium 50%
• Gold-palladium 50%
• Sol-immobilization 50%
• Catalyst Support 50%
• Benzyl Alcohol 50%
• Supported Nanoparticles 50%
• Oxidation Catalyst 50%
• Reaction Studies 50%
• Alloy Nanoparticles 50%
• Key Discovery 50%
• Titania Support 50%
• Catalytic Mechanism 50%
• Catalyzed Reaction 50%
• General Mechanism 50%
• Heterogeneous Systems 50%
• Carbon Monoxide Oxidation 50%
• Detailed Reaction 50%
• Substituent Effect 50%
• Confirmatory Experiments 50%
• Reaction Intermediates 50%
• Multiple Reactions 50%
• Gold Surface 50%
• Sub-ambient Temperature 50%
• Catalysis by Gold 50%
• Kinetic Isotope Effect 50%

Chemistry

• Catalyst Activity 100%
• Palladium 100%
• Nanoparticle 100%
• Palladium-Gold Nanoparticle 100%
• Organic Reaction 100%
• Titanium Dioxide 50%
• Dioxygen 50%
• Carbonyl Compound 50%
• Carbon Monoxide 50%
• Deuterium 50%
• Benzaldehyde 50%
• Benzyl Alcohol 50%
• Catalyst Support 50%
• Kinetic Isotope Effect 50%
• Reaction Intermediate 50%
• Substituent Effect 50%

Chemical Engineering

• Nanoparticle 100%
• Molecular Oxygen 33%
• Carbonyl Compound 33%
• Deuterium 33%