NASA Technical Reports Server (NASA) · 2001 · 49 citations · 50 references
Open access
EngineeringAerospace EngineeringMechanical EngineeringComputational Heat TransferFluid DynamicsHeat TransferComputational AerodynamicsHeat Transfer AnalysisHeat Transfer FundamentalsHeat Transfer In FluidsHeat Transfer ModelingThermal SimulationBlade Path Flow FieldsCode ValidationFilm CoolingHeat Transfer MechanismsTurbine AerodynamicsTurbine Blade CoolingTurbine CoolingTurbines
The turbine gas path is a very complex flow field. This is due to a variety of flow and heat transfer phenomena encountered in turbine passages. This manuscript provides an overview of the current work in this field at the NASA Glenn Research Center. Also, based on the author's preference, more emphasis is on the computational work. There is much more experimental work in progress at GRC than that reported here. While much has been achieved, more needs to be done in terms of validating the predictions against experimental data. More experimental data, especially on film cooled and rough turbine blades, are required for code validation. Also, the combined film cooling and internal cooling flow computation for a real blade is yet to be performed. While most computational work to date has assumed steady state conditions, the flow is clearly unsteady due to the presence of wakes. All this points to a long road ahead. However, we are well on course.
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Two-equation eddy-viscosity turbulence models for engineering applications
Florian Menter · AIAA Journal · 1994 · 20.7K citations
Convective Heat and Mass Transfer
W. M. Kays, J. H. Whitelaw · Journal of Applied Mechanics · 1967 · 4K citations · Full text