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Approaches to mechanism reduction for hydrocarbon oxidation: Ethylene
Tianfeng Lu
,
Chung King Law
Mechanical & Aerospace Engineering
High Meadows Environmental Institute
Princeton Materials Institute
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peer-review
1
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Keyphrases
Hydrocarbon Oxidation
100%
Ethylene
100%
Mechanism Reduction
100%
Skeletal Mechanism
100%
Reduction Kinetics
75%
Detailed Mechanism
50%
Elementary Reaction
50%
High-temperature Chemistry
50%
Laminar Flame Speed
25%
Directed Relation Graph
25%
Computational Singular Perturbation
25%
Nonpremixed Counterflow
25%
Oxidation Mechanism
25%
Pressure-temperature
25%
Equivalence Ratio
25%
Counterflow Combustion
25%
Quasi-steady State
25%
Pressure Ratio
25%
Global Reaction
25%
Autoignition Delay Times
25%
Ethylene Oxidation
25%
Temperature Ratio
25%
Moderately High Temperature
25%
Accuracy Requirements
25%
Parametric Ranges
25%
Subsequent Generation
25%
Chemistry
Chemistry
100%
Ethylene
100%
Hydrocarbon
100%
Elementary Reaction
100%
Oxidation Reaction
50%
Laminar Flame
50%
Flame Speed
50%
Spontaneous Combustion
50%
Engineering
Reduction Mechanism
100%
Elementary Reaction
100%
Ignition
50%
Systematic Approach
50%
Autoignition
50%
Equivalence Ratio
50%
Ignition Delay
50%
Quasi Steady State
50%
Pressure Ratio
50%
Oxidation Reaction
50%
Material Science
Oxidation Reaction
100%