Journal of Aircraft · 2000 · 48 citations · 10 references
EngineeringAerospace EngineeringComputational EngineeringComputational Heat TransferHeat TransferThermal AnalysisFinite Difference MethodsHeat Transfer AnalysisHeat Transfer FundamentalsHeat Transfer ModelingIce-atmosphere InteractionsThermal SimulationBoundary-layer EquationsFinite Difference DiscretizationFinite Difference SchemesFinite Difference SimulationHeat Diffusion EquationIcing SimulationNumerical Simulation Of Thermal Boundary LayersSurface Temperature
Aircraft manufacturers need anti-icing system simulations to help in the design of ice protection systems. Heat and mass transfer predictions obtained with two different methods to solve the boundary layer in the case of an anti-icing simulation are compared. The integral method and the finite difference method are used to solve the boundary-layer equations, including the mass diffusion equation. The boundary-layer solvers are implemented into the code CANICE, which models the ice accretion process. Comparison of heat and mass transfer distributions and surface temperature distributions are made. Surface temperatures predicted with the finite difference method are closer to experimental results than surface temperatures predicted with the integral method
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Numerical simulation of airfoil ice accretion
C. MACARTHUR · 21st Aerospace Sciences Meeting · 1983 · 47 citations