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Prediction of laminar – turbulent transition on highly-loaded turbomachinery profiles

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Konferencja
International Symposium SYMKOM Compressor & Turbine Flow Systems, Treory & Application Areas (15-17.09.2008; Łódź; Polska)
Języki publikacji
EN
Abstrakty
EN
The paper presents a review of the current knowledge concerning the modelling of laminar – turbulent transition on turbomachinery blading. The most important physical features of laminar – turbulent transition are reviewed and their consequences for CFD modelling are discussed. The main features and assumptions of existing models are discussed with special reference to intemittency based models. The limitations of existing models are discussed and the reasons why intermittency – based models seem to be a promising perspective are outlined. The main features of intermittency – based model developed at the Institute of Thermal Machinery and extended by in-house correlations on onset location and transition length are also presented and discussed.
Twórcy
autor
  • Technical University of Czestochowa
autor
  • Technical University of Czestochowa
Bibliografia
  • Dhawan S., Narasimha R. (1958), Some properties of boundary layer during the transition from laminar to turbulent flow motion. J. Fluid. Mech., 3, pp. 418–436
  • Dopazo C., (1977), On conditional averages for intermittent turbulent flows. J. Fluid. Mech., 81, pp.433-438
  • Drela, M., and Giles, M. B., (1987), Viscous-Inviscid Analysis of Transonic and Low Reynolds Number Airfoils, AIAA Journal Vol. 25, No. 10, pp. 1347-1355
  • Elsner W., Vilmin S., Drobniak S., Piotrowski W. (2004), Experimental analysis and prediction of wake-induced transition in turbomachinery. ASME Turbo EXPO 2004, Vienna, ASME Paper GT2004-53757
  • Elsner W., Warzecha P., (2008), Transition modelling with intermittency transport model, Proc. of SYMKOM’08 Symposium, Łódź
  • Kaszeta, R. W., Simon, T. W., Ashpis, D. E., (2001), Experimental Investigation of Transition to Turbulence as Affected by Passing Wakes, ASME Turbo EXPO 2001, New Orleans, ASME Paper No. 2001-GT-0195
  • Lardeau S., Leschziner M., (2005); Unsteady RANS modelling of wake–blade interaction: computational requirements and limitations, Computers & Fluids, Vol. 34, Issue 1, pp.3-21
  • Lardeau S., Leschziner M., (2006); Modeling of Wake-Induced Transition in Linear Low-Pressure Turbine Cascades, AIAA Journal, vol.44 no.8; pp. 1854-1865
  • Lodefier K., Dick E., Piotrowski W., Elsner W. (2005), Modelling of wake induced transition with dynamic description of intermittency. Proc. of 6th European Turbomachinery Conference, Lille, pp. 730-739
  • Lodefier K., Dick E.: Modelling of unsteady transition in low-pressure turbine blade flows with two dynamic intermittency equations. Flow, Turbulence and Combustion, vol.76, 103-132 (2006)
  • Lodefier K., Dick E., Piotrowski W., Elsner W. (2007), Validation of a dynamic intermittency model for the prediction of wake-induced transition on turbine blades Proc. of 7th European Turbomachinery Conference, Athens, pp. 1379-1388
  • Mack, L. M., (1977), Transition Prediction and Linear Stability Theory, AGARD-CP-224, Paper 1, NATO, Paris
  • Mayle R.E. (1991); The role of laminar-turbulent transition in gas turbine engines, Trans. ASME, J. of Turbomachinery vol. 113, pp. 509-537
  • Medic G. and Durbin P.A., (2002), Toward improved prediction of heat transfer on turbine blades. J. of Turbomachinery, 124(2), pp. 187-192
  • Menter F.R., Esch T., Kubacki S. (2002); Transition modelling based on local variables, In: W. Rodi and N. Fueyo, Eds., Engineering Turbulence Modeling and Measurements 5, pp.555-564
  • Menter F.R., Langtry R.B., Likki S.R., Suzen Y.B., Huang P.G., Völker S., (2006), A correlation – based transition model using local variables P.I – Model formation, Trans. ASME, J. of Turbomachinery vol. 128, pp. 413-422
  • Piotrowski W., Elsner W., Lodefier K., Dick E., (2008), Comparison of two Unsteady Intermittency Models for Bypass Transition Prediction on a Turbine Blade Profile (to appear in FTAC)
  • Piotrowski W., Elsner W., Drobniak S., (2008), Transition Prediction on Turbine Blade Profile With Intermittency Transport Equation, ASME Turbo EXPO 2008, Berlin, ASME Paper GT2008-50796
  • Savill M., 2002, New strategies in Modelling By-Pass Transition, Ed. Launder B.E., Sandham N. „Closure Strategies for Turbulent Transitional Flows”, Cambridge University Press, pp. 493-521
  • Stieger R., Hudson H.P., The unsteady development of a turbulent wake through a downstream lowpressure turbine blade passage. J. of Turbomachinery, Vol.127, pp. 388-394
  • Steelant J., Dick E., (2001),Modeling of laminar-turbulent transition for high freestream turbulence, J. of Fluids Engineering, Vol. 123(1), pp.22-30
  • Suzen Y. B., Huang P. G., (2005), Numerical simulation of unsteady wake/blade interactions in low-pressure turbine ows using an intermittency transport equation. J. of Turbomachinery, Vol. 27, pp.431-444, 2005
  • Vilmin, S., Savill, M.A., Hodson, H.P., Dawes, W.N., (2003), “Predicting Wake–Passing Transition In Turbomachinery Using a Intermittency-Conditioned Modelling Approach”, 33rd AIAA Fluid Dynamics Conference and Exhibit, Orlando, June
  • Zarzycki R., Elsner W., (2005), The effect of wake parameters on the transitional boundary layer on turbine blade. IMechE Part A, J. Power and Energy, vol.219, pp. 471-480
Typ dokumentu
Bibliografia
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bwmeta1.element.baztech-c49ebcc7-db0e-4453-9d7e-34e184afff97
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