Journal of Propulsion and Power · 1989 · 37 citations · 7 references
EngineeringComputational EngineeringAerodynamicsComputational Fluid DynamicsFluid DynamicsBoundary Layer FlowComputational AerodynamicsNavier-stokes EquationsTransient Flow AnalysisUnsteady AerodynamicsVortex DynamicsLeakageLeakage EffectsNavier-stokes SolversPressure Fluctuation AnalysisRotor-stator InteractionTurbine DesignTurbine TechnologyTurbomachinery
Fluid flows within turbomachinery tend to be extremely complex. Understanding such flows is crucial to efforts to improve current turbomachinery designs, and the computational approach can be used to great advantage in this regard. This study presents a finite-difference, unsteady, thin-layer Navier-Stokes solution to the flow within an axial turbine stage. The computational methodology developed for this simulation is presented in Part I of this paper. The calculation includes end-wall and tip-leakage effects. Results in the form of time-averaged surface pressures, pressure amplitudes (corresponding to the pressure fluctuation in time), near-surface velocity vectors, and pressure contours in the passage areas are presented. The numerical results are compared with experimental data wherever possible and the agreement between the two is found to be good.
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Turbine Rotor-Stator Interaction
R. P. Dring, H. D. Joslyn, Larry W. Hardin et al. · Journal of Engineering for Power · 1982 · 293 citations
Engineering, Aerospace Engineering, Mechanical Engineering +17