Publication | Closed Access
Multiplicity and stability of the hydrogen‐oxygen‐nitrogen flame: The influence of chemical pathways and kinetics on transitions between steady states
21
Citations
23
References
1980
Year
Laminar FlameChemical EngineeringSteady StatesEngineeringChemical PathwaysCombustion ScienceMultiple Steady StatesNumerical SimulationCombustion TheoryCombustion EngineeringHydrogen‐oxygen‐nitrogen FlamePremixed Hydrogen FlameHydrogenChemistryMultiplicity TheoryHydrogen CombustionChemical KineticsPremixed Turbulent Flame
Abstract Numerical bifurcation techniques are used to predict multiple steady states for a nonadiabatic, premixed hydrogen flame stabilized on a flat‐flame burner. It is found that predicted conditions for burnout and ignition vary remarkably as rival chemical niodels are selected, while conditions for a well‐stabilized flame are much less sensitive to chemical and kinetic assumptions. It is concluded that multiplicity theory can help define the chemical behavior of realistic, complex reaction‐diffusion systems.
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