Mathematical modeling of impinging hydrogen-air flows augmented by catalytic surface reactions

Keyphrases

• Mathematical Modeling 100%
• Airflow 100%
• Heat Transfer 100%
• Platinum Surface 100%
• Catalytic Surface Reaction 100%
• Hydrogen-air 100%
• Surface Temperature 66%
• Surface Species 66%
• Chemical Reaction 66%
• Gas Phase 66%
• Finite Volume 66%
• Hydrogen-air Mixture 66%
• Catalytic Surface 66%
• Surface Chemical Reaction 66%
• Volume Equation 66%
• Porous Burner 66%
• Low Temperature 33%
• Numerical Results 33%
• Hydrogen Peroxide 33%
• Catalytic Reaction 33%
• Flow Configuration 33%
• Computational Results 33%
• Hot Plate 33%
• Gas Flow 33%
• Steady-state Conditions 33%
• Control Volume 33%
• Balance Equations 33%
• Adsorption 33%
• Numerical Computation 33%
• Nitrogen Oxides 33%
• Flow Properties 33%
• Surface Interface 33%
• Desorption 33%
• Adsorption-desorption 33%
• Grid Node 33%
• Fast Reactions 33%
• Equivalence Ratio 33%
• Transfer Reactions 33%
• Hot Surface 33%
• Computational Grid 33%
• Gas Emission 33%
• Adsorbed Species 33%
• Elementary Reaction 33%
• Reacting Flow 33%
• Produced Gas 33%
• Flowing Gas 33%
• Catalytic Combustion 33%
• Influence Coefficient 33%
• Upwind Differencing 33%
• Neighbor Node 33%
• Platinum Layers 33%
• Impinging Jet 33%
• Catalytic Reactor 33%
• Mass Transfer-reaction 33%
• Surface Reaction Rate 33%

Engineering

• Gas-Phase 100%
• Mathematical Modelling 100%
• Air Mixture 100%
• Porosity 100%
• Air Flow 100%
• Low-Temperature 50%
• Flow Configuration 50%
• State Condition 50%
• Control Volume 50%
• Numerical Computation 50%
• Flow Property 50%
• Grid Node 50%
• Equivalence Ratio 50%
• Hot Plate 50%
• Emission Gas 50%
• Produced Gas 50%
• Reacting Flow 50%
• Elementary Reaction 50%
• Neighboring Node 50%
• Flowing Gas 50%
• Central Node 50%
• Real Effect 50%
• Catalytic Reaction 50%
• Nodes 50%
• Gas Flow 50%
• Hot Surface 50%
• Balance Equation 50%
• Influence Coefficient 50%
• Computational Grid 50%

Chemical Engineering

• Catalytic Reactor 100%