Study of glucose isomerisation to fructose over three heterogeneous carbon-based aluminium-impregnated catalysts

Keyphrases

• Fructose 100%
• Carbon-based 100%
• Glucose Isomerization 100%
• Impregnated Catalyst 100%
• Biochar 80%
• Catalytic Activity 60%
• Graphene Oxide 60%
• Graphitic Oxide 60%
• Characterization Results 20%
• Active Sites 20%
• Isomerization 20%
• Heterogeneous Catalyst 20%
• High pH 20%
• Microwave Heating 20%
• Kinetic Model 20%
• Catalytic Mechanism 20%
• Renewable Energy 20%
• Catalyst Type 20%
• Carbon Support 20%
• Chemical Synthesis 20%
• Green Synthesis 20%
• Sustainable Biorefinery 20%
• Engineered Biochar 20%
• Biomass Valorization 20%
• Catalyst Characterization 20%
• PH Buffering Capacity 20%
• Carbon Loss 20%
• Slow Kinetics 20%
• Carbon Catalyst 20%
• Conversion Kinetics 20%
• Sustainable Resources 20%
• Bio-based Platform Chemicals 20%
• Aluminum Impregnation 20%
• Synthesis Routes 20%
• Oxide-oxide 20%
• High Activation Energy 20%

Material Science

• Biochar 100%
• Aluminum 100%
• Graphene Oxide 60%
• Catalyst Activity 60%
• Oxide Compound 60%
• Chemical Synthesis 20%
• Catalysis 20%
• Activation Energy 20%

Chemical Engineering

• Biochar 100%
• Fructose 100%
• Graphene 60%
• Microwave Heating 20%
• Chemical Kinetics Characteristics 20%
• Catalyst Characterization 20%