Access the full text.
Sign up today, get DeepDyve free for 14 days.
Loading next page...
/lp/springer-journals/numerical-analysis-of-the-influence-of-angle-of-attack-on-turbulent-HKFnZ0Xxt0
References (33)
-
F. Menter (1993)
ZONAL TWO EQUATION k-w TURBULENCE MODELS FOR AERODYNAMIC FLOWS -
Yu.S. Prigorodov S.A. Isaev (2002)
Numerical modelling of the viscosity effect on turbulent flow around a thick airfoil with vortex cellsJ. Eng. Phys., 75
-
S.A. Isaev P.A. Baranov (1999)
Numerical modelling of the effect of the lift-to-drag increase of airfoils by suction in vortex cellsJ. Eng. Phys., 72
-
S. Isaev, Yu. Prigorodov, A. Sudakov (2000)
Numerical analysis of vortex cell efficiency in laminar and turbulent flows past a circular cylinder with embedded rotating bodiesFluid Dynamics, 35
-
S.A. Isaev P.A. Baranov (2003)
P.A. Baranov, S.A. Isaev, Yu.S. Prigorodov, and A.G. Sudakov, Control of turbulent flow around a thick airfoil at a flow intensification in vortex cells by suction from the surfaces of central bodies, Fluid Dynamics, 2003, No. 3, P. 57–68. -
S. Isaev, P. Baranov, N. Kudryavtsev, D. Lysenko, A. Usachov (2006)
Complex analysis of turbulence models, algorithms, and grid structures at the computation of recirculating flow in a cavity by means of VP2/3 and fluent packages. Part 2. Estimation of models adequacyThermophysics and Aeromechanics, 13
-
P.A. Baranov S.A. Isaev (2005)
Complex analysis of turbulence models, algorithms, and grid structures at the computation of recirculating flow in a cavity by means of VP2/3 and FLUENT packages. Part 1. Scheme factors influenceThermophysics and Aeromechanics, 12
-
P.A. Baranov S.A. Isaev (2002)
S.A. Isaev, P.A. Baranov, N.A. Kudryavtsev, I.A. Pyshnyi, and V.B. Kharchenko, Numerical modelling of unsteady turbulent flow around a thick airfoil with vortex cells at the incorporation of suction from the surfaces of central bodies, Aeromech. Gas Dynamics, 2002, No. 3, P. 3–15. -
citation_title=of Flows around the Bodies with Vortex Cells Applied to Flying Vehicles of Integral Configuration, citation_publication_date= (2003)
of Flows around the Bodies with Vortex Cells Applied to Flying Vehicles of Integral Configuration -
S. Isaev, S. Guvernyuk, M. Zubin, Yu. Prigorodov (2000)
Numerical and physical modeling of a low-velocity air flow in a channel with a circular vortex cellJournal of Engineering Physics and Thermophysics, 73
-
Flying vehicles “EKIP” L.N. Shchukin (1993)
L.N. Shchukin, Flying vehicles “EKIP”, Civil Aviation, 1993, No. 6, P. 11–15. -
V.A. Korobkov (1989)
Problems and Methods of Computation of Separated Incompressible Fluid Flows -
P. Baranov, S. Isaev, Yu. Prigorodov, A. Sudakov (1998)
Numerical simulation of laminar flow round a cylinder with passive and active vortex cellsTechnical Physics Letters, 24
-
S.V. Guvernyuk P.A. Baranov (2000)
P.A. Baranov, S.V. Guvernyuk, M.A. Zubin, and S.A. Isaev, Numerical and physical modelling of recirculation flow in vortex cell on the wall of a plane-parallel channel, Fluid Dynamics, 2000, No. 5, P. 44–56. -
(1991)
Separation control - Review -
F. Menter (1992)
Improved two-equation k-omega turbulence models for aerodynamic flows, 93
-
Yu.S. Prigorodov S.A. Isaev (1998)
Computation of separated low-velocity air flow around the airfoil with vortex cellsJ. Eng. Phys., 71
-
P.A. Baranov S.A. Isaev (2003)
Numerical analysis of the influence of angle of attack on turbulent flow around a thick airfoil with vortex cells at high Reynolds numbersJ. Eng. Phys., 76
-
V.B. Kharchenko (2003)
Multi-block computational technologies of solving fundamental, applied, and operation problems of power engineering and transport -
S. Isaev, A. Sudakov, P. Baranov, Yu. Prigorodov (2001)
Effect of supercirculation in a flow around a thick airfoil with vortex cellsDoklady Physics, 46
-
C. Wang, M. Sun (2000)
Separation control on a thick airfoil with multiple slots blowing at small speedsActa Mechanica, 143
-
P. Baranov, S. Isaev, Yu. Prigorodov, A. Sudakov (2000)
Numerical analysis of the influence of the angle of attack on a turbulent flow on an incompressible fluid past a profile of large thickness with vortex cellsJournal of Engineering Physics and Thermophysics, 73
-
Yu.S. Prigorodov S.A. Isaev (2002)
Analysis of the efficiency of control of flow around the bodies with the aid of vortex cells with regard for power expensesJ. Eng. Phys., 75
-
P.A. Baranov S.A. Isaev (2005)
Multi-block computational technologies of solving the hydraulics and aeromechanics problemsScientific and Technical Bulletin of the St. Petersburg State Pedagogical Univ., 1
-
M. Peric (1999)
Computational methods for fluid dynamics -
S. Isaev, P. Baranov, S. Guvernyuk, M. Zubin (2002)
Numerical and Physical Modeling of Turbulent Flow in a Divergent Channel with a Vortex CellJournal of Engineering Physics and Thermophysics, 75
-
S.A. Isaev P.A. Baranov (2000)
Numerical analysis of the influence of angle of attack on turbulent flow around a thick airfoil with vortex cells by incompressible fluid flowJ. Eng. Phys., 73
-
S.A. Isaev P.A. Baranov (1999)
P.A. Baranov, S.A. Isaev, Yu.S. Prigorodov, and A.G. Sudakov, Computation of laminar flow around an airfoil with passive and active vortex cells on multi-block overlapping grids, Izv. vuzov. Aviatsionnaya tekhnika, 1999, No. 3, P. 30–35. -
M. Sun, H. Hamdani (2001)
Separation Control by Alternating Tangential Blowing/Suction at Multiple SlotsAIAA Journal, 39
-
S.A. Isaev P.A. Baranov (2003)
Numerical analysis of the influence of shape of embedded vortex cells on turbulent steady flow around a circular cylinderJ. Eng. Phys., 76
-
Zonal two-equation k-ω turbulence models for aerodynamic flows F.R. Menter (1993)
F.R. Menter, Zonal two-equation k-ω turbulence models for aerodynamic flows, AIAA Paper, 1993, No. 93-2906. -
P. Baranov, S. Isaev, Yu. Prigorodov, A. Sudakov (1998)
Numerical simulation of the lowering of the drag of a cylinder containing vortex cells with the use of a control system for the turbulent boundary layerTechnical Physics Letters, 24
-
A.I. Leontyev (2005)
Numerical Modelling of Vortex Intensification of Heat Exchange in Packages of Pipes
- Publisher
- Springer Journals
- Copyright
- 2007 S.A. Isaev, P.A. Baranov, A.G. Sudakov, and V.B. Kharchenko
- ISSN
- 0869-8643
- eISSN
- 1531-8699
- DOI
- 10.1134/S0869864307020035
- Publisher site
- See Article on Publisher Site
Abstract
Abstract On the basis of the solution by multi-block computational technologies of Reynolds equations closed with the aid of the equations of the model of Menter’s shear stresses transfer, an analysis of the flow around a thick airfoil of classical geometry with vortex cells is given at an arrangement of suction from the surface of central bodies placed inside them. The suction velocities, angles of attack, and location of vortex cells on the contour are determined, under which the flow around an airfoil of 35,2% thickness is ensured close to a separation-free flow, for high Reynolds numbers (Re = 105). The integral force characteristics of the Goettingen and EKIP profiles are compared for the distributed and concentrated suction in vortex cells.
Journal
Thermophysics and Aeromechanics – Springer Journals
Published: Jun 1, 2007