Prediction of the knock propensity of biogenous fuel gases: Application of the detonation theory to syngas blends

Keyphrases

• Detonation Theory 100%
• Knock 100%
• Syngas 100%
• Fuel Gas 100%
• Autoignition 60%
• Propane 40%
• Rating Method 40%
• Syngas Composition 40%
• Acoustics 20%
• Water Vapor 20%
• Methane 20%
• Reactor 20%
• Dimensionless Parameters 20%
• Exhaust Gas Recirculation 20%
• Biogas 20%
• Higher Hydrocarbons 20%
• Water Addition 20%
• Fuel Blends 20%
• Effective Metric 20%
• Gas Engine 20%
• Novel Methodology 20%
• Equivalence Ratio 20%
• Statistical Mixtures 20%
• Fuel Composition 20%
• Detailed Chemical Kinetics 20%
• Fraunhofer 20%
• Intermediate Pyrolysis 20%
• Gas Measurement 20%
• Thermo-Catalytic Reforming (TCR®) 20%
• Reference Fuels 20%
• Chemical Kinetic Model 20%
• Pyrolysis Plant 20%
• Thermochemical Conversion 20%
• Knock Index 20%
• Thermodynamic Effect 20%
• Critical Compressibility Factor 20%
• Antiknock 20%
• Methane number 20%

Engineering

• Syngas 100%
• Fuel Gas 100%
• Autoignition 60%
• Methane 40%
• Measured Data 20%
• Dimensionless Parameter 20%
• Pyrolysis 20%
• Compression Ratio 20%
• Exhaust Gas Recirculation 20%
• Dilution 20%
• Engine Operating 20%
• Fuel Blend 20%
• Catalytic Reforming 20%
• Biogas 20%
• Gas Engine 20%
• Equivalence Ratio 20%
• Hot Spot 20%
• Reference Fuel 20%
• Thermochemical Conversion 20%