Enhancing bio-oil quality and energy recovery by atmospheric hydrodeoxygenation of wheat straw pyrolysis vapors using Pt and Mo-based catalysts

Keyphrases

• 13C NMR 20%
• Acidic Catalyst 20%
• Al2O3 Catalyst 20%
• Aluminum Oxide 20%
• Atmospheric Hydrodeoxygenation 100%
• Atmospheric Pressure 20%
• Bench-scale Reactor 20%
• Bio-oil 100%
• Bio-oil Characterization 20%
• Bio-oil Quality 100%
• Carbon Yield 20%
• Catalyst Ratio 20%
• Catalytic Fast Pyrolysis 20%
• Coke Yield 40%
• CoMo Catalyst 100%
• Deoxygenation 20%
• Energy Balance 20%
• Energy Recovery 100%
• Fast Pyrolysis 20%
• High Biomass 20%
• High Selectivity 20%
• Hydrodeoxygenation Catalyst 40%
• Liquid Transportation Fuels 20%
• Low Pressure 20%
• Mass Balance 20%
• Molybdenum Trioxide 80%
• Non-catalytic 40%
• Oil Energy 100%
• Oxygen Content 20%
• Pt Catalyst 100%
• Pt-TiO2 60%
• Pyrolysis Conditions 20%
• Pyrolysis Vapors 100%
• Rutile 40%
• Supported Pt 20%
• Time-of-flight Mass Spectrometry 20%
• TiO2 Catalyst 20%
• TiO2 Support 20%
• Wheat Straw 100%

Chemical Engineering

• Energy Balance 14%
• Fast Pyrolysis 28%
• Hydrodeoxygenation 100%
• Pyrolysis 100%
• Titanium Dioxide 100%