Combustion Science and Technology · 1983 · 131 citations · 12 references
EngineeringComputational EngineeringMechanical EngineeringCombustionComputational Fluid DynamicsComputational PhysicsCombustion KineticsCombustion ProcessesFinite Difference MethodsFlame PropagationFlame StructureNumerical AlgorithmsAdiabatic Combustion AnalysisFinite Difference GriddingFlame SpeedFlame Structure AnalysisNewton ConvergenceNonlinear Difference EquationsNumerical Combustion Simulation
Abstract Abstract–We discuss a numerical method for determining the flame speed and the structure of freely propagating, adiabatic flames. The method uses a finite difference procedure in which the nonlinear difference equations are solved by a damped, modified, Newton method. This approach is in contrast to the traditional approach of solving a related transient problem until a steady-state solution i5 achieved. Our method is computationally faster than other methods, and it is potentially more accurate because it employs an adaptive gridding strategy. We demonstrate its use for the determination of hydrogen-air flame speeds.
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Kinetic Modeling of the Oxidation of Ammonia in Flames
James A. Miller, Mitchell D. Smooke, Robert M. Green et al. · Combustion Science and Technology · 1983 · 412 citations
James A. Miller, Reginald E. Mitchell, Mitchell D. Smooke et al. · Symposium (International) on Combustion · 1982 · 177 citations