TG-FTIR characterization of coal and biomass single fuels and blends under slow heating rate conditions: Partitioning of the fuel-bound nitrogen

Keyphrases

• Co-pyrolysis 100%
• Fuel-bound Nitrogen 100%
• FTIR Characterization 100%
• TG-FTIR 100%
• Heating Rate 100%
• Slow Heating 100%
• Woody Biomass 60%
• Animal Waste 60%
• Biofuel 40%
• Co-firing 40%
• Agricultural Biomass 40%
• Additive Behavior 40%
• Behavior-based 20%
• Solid Phase 20%
• Mutual Interaction 20%
• Weight Loss 20%
• Synergistic Effect 20%
• Dutch 20%
• Individual Behaviour 20%
• Bituminous Coal 20%
• Devolatilization 20%
• Biomass Materials 20%
• Biomass Pyrolysis 20%
• Coal Pyrolysis 20%
• Nitrogen Species 20%
• Biomass-coal Blends 20%
• Gas Species 20%
• NOx Control 20%
• CH4 Yield 20%
• Maximum Weight 20%
• Gas Products 20%
• Catalytic Effect 20%
• Devolatilization Rate 20%
• Simple Addition 20%
• Alkali-earth Metal 20%
• Poultry Litter 20%
• Fuel Pyrolysis 20%
• High Ammonia 20%
• Power Sector 20%
• Volatile Composition 20%
• Pyrolysis Behavior 20%
• Evolved Gas Analysis 20%
• Release Pattern 20%
• Alkaline Earth Metals 20%
• Waste Ashes 20%
• Volatile-N 20%
• Ammonia Yield 20%
• CO Yield 20%
• TG Analysis 20%
• N Species 20%
• N Yield 20%
• N Content 20%
• Volatile Species 20%

Chemical Engineering

• Heating Rate 100%
• Co-Pyrolysis 100%
• Pyrolysis 60%
• Alkaline Earth Metal 40%
• Gas Products 20%
• Pyrolysis Behavior 20%
• Devolatilization Rate 20%

Engineering

• Slow Heating Rate 100%
• Pyrolysis 100%
• Biomass Fuels 25%
• Mutual Interaction 12%
• Synergistic Effect 12%
• Bituminous Coal 12%
• Gas Specie 12%
• Devolatilization 12%
• Devolatilization Behavior 12%
• Power Sector 12%
• Biomass Pyrolysis 12%
• Methane 12%