Thermal decomposition of N₂O near 900 K studied by FTIR spectrometry: Comparison of experimental and theoretical O(³P) formation kinetics

Keyphrases

• Thermal Decomposition 100%
• CCSD(T) 100%
• Pressure Limit 100%
• O(3P) 100%
• Non-adiabatic 100%
• Formation Kinetics 100%
• FTIR Spectrometry 100%
• N2O Decomposition 100%
• High Pressure 50%
• Activation Energy 50%
• Product Yield 50%
• Low Pressure 50%
• Temperature Range 50%
• High Temperature 50%
• Shock Waves 50%
• Kinetic Model 50%
• Reaction Time 50%
• Human Factors 50%
• Temperature Data 50%
• Rice-Ramsperger-Kassel-Marcus 50%
• Wide Temperature Range 50%
• Rate Coefficients 50%
• NO Formation 50%
• Least-squares Analysis 50%
• Second-order Rate Constant 50%
• Davidson 50%
• Crossing Point 50%
• Quantum Calculations 50%
• Aug-cc-pVTZ 50%
• Published Data 50%
• Spin-forbidden 50%
• Strong Competition 50%
• Dissociation Reaction 50%
• Thermal Dissociation 50%
• Ab Initio Prediction 50%
• Wave Heating 50%
• Quantum Experiments 50%

Chemistry

• Pyrolysis 100%
• Rate Constant 100%
• Nitrous Oxide 100%
• Fourier Transform Infrared Spectroscopy 100%
• formation 100%
• CCSD 66%
• Reaction Activation Energy 33%
• Ground State 33%
• Shock Wave 33%
• Dissociation Reaction 33%
• A-Factor 33%