An experimental and computational study of methyl ester decomposition pathways using shock tubes

Keyphrases

• Methyl Ester 100%
• Shock Tube 100%
• Computational Study 100%
• Decomposition Pathway 100%
• Methyl Butanoate 100%
• CO2 Yield 80%
• Pyrolysis 60%
• CO2 Absorption 40%
• High Temperature 20%
• Laser-based 20%
• Model Prediction 20%
• Biodiesel Fuel 20%
• Combustion Measurement 20%
• Reflected Shock Wave 20%
• Surrogate Fuel 20%
• CO2 Molecule 20%
• Fisher 20%
• Methyl Propiolate 20%
• Tunable Diode Laser Absorption 20%
• Absorption Strength 20%
• Rapid Formation 20%
• Soot Reduction 20%
• Reactant Concentration 20%
• Detailed Reaction Mechanism 20%
• Non-reactivity 20%
• Improved Prediction 20%
• Methyl Acetate 20%
• Yield Estimation 20%
• CO2 Band 20%
• High-temperature Decomposition 20%
• C(K) 20%

Chemistry

• Pyrolysis 100%
• Shock Tubes 100%
• Methyl Ester 100%
• Detailed Reaction Mechanisms 33%
• Decomposition Temperature 33%
• Methyl Acetate 33%
• Strength 33%
• Methyl Propionate 33%
• Shock Wave 33%
• Biodiesel 33%

Engineering

• Pyrolysis 100%
• Model Prediction 33%
• Biodiesel 33%
• Reflected Shock 33%
• Time History 33%
• Fuel Model 33%
• Reactant Concentration 33%
• Theoretical Work 33%