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A reduced mechanism for methanol oxidation in supercritical water
Eric E. Brock
,
Phillip E. Savage
, John R. Barker
Chemical Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
69
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Scopus citations
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Keyphrases
Supercritical Water
100%
Methanol Oxidation
100%
Reduction Kinetics
100%
Reaction Conditions
33%
Uncertainty Analysis
33%
Reaction Rate
16%
Sensitivity Analysis
16%
Model Prediction
16%
Confidence Interval
16%
Mechanism-based
16%
Supercritical Water Oxidation
16%
Reaction Products
16%
Range of Values
16%
Mechanistic Model
16%
Methanol
16%
Kinetic Model
16%
Successful Development
16%
Formaldehyde
16%
Global Model
16%
Monte Carlo Method
16%
Chemical Species
16%
Model Uncertainty
16%
Reaction Range
16%
Rate Sensitivity
16%
Rate Analysis
16%
Product Selectivity
16%
Elementary Reaction
16%
Oxidation Reactor
16%
Net Rate
16%
Molar Yield
16%
Reactor Engineering
16%
Engineering Studies
16%
Free Radical Processes
16%
Chemical Engineering
Methanol
100%
Supercritical Water
100%
Supercritical Water Oxidation
25%
Carbon Dioxide
25%
Chemical Kinetics Characteristics
25%
Oxidation Reactor
25%
Reactor Engineering
25%
Free Radical
25%
Reaction Analysis
25%
Formaldehyde
25%