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An extension of Thwaites’ method for turbulent boundary layers
by
Griffin, Kevin P.
, Moin, Parviz
, Bose, Sanjeeb T.
, Agrawal, Rahul
in
Aerospace sciences
/ Approximation
/ Boundary layers
/ Differential equations
/ ENGINEERING
/ Equilibrium
/ flow separation
/ Fluid flow
/ Friction
/ High Reynolds number
/ integral method
/ Laminar boundary layer
/ Laminar flow
/ Methods
/ Momentum
/ Potential flow
/ Pressure effects
/ Pressure gradients
/ Reynolds number
/ Separation
/ Thickness
/ Turbulent boundary layer
/ turbulent boundary layers
/ Turbulent flow
/ Two dimensional analysis
/ Two dimensional boundary layer
/ Two dimensional flow
/ Velocity
/ WIND ENERGY
2024
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An extension of Thwaites’ method for turbulent boundary layers
by
Griffin, Kevin P.
, Moin, Parviz
, Bose, Sanjeeb T.
, Agrawal, Rahul
in
Aerospace sciences
/ Approximation
/ Boundary layers
/ Differential equations
/ ENGINEERING
/ Equilibrium
/ flow separation
/ Fluid flow
/ Friction
/ High Reynolds number
/ integral method
/ Laminar boundary layer
/ Laminar flow
/ Methods
/ Momentum
/ Potential flow
/ Pressure effects
/ Pressure gradients
/ Reynolds number
/ Separation
/ Thickness
/ Turbulent boundary layer
/ turbulent boundary layers
/ Turbulent flow
/ Two dimensional analysis
/ Two dimensional boundary layer
/ Two dimensional flow
/ Velocity
/ WIND ENERGY
2024
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Do you wish to request the book?
An extension of Thwaites’ method for turbulent boundary layers
by
Griffin, Kevin P.
, Moin, Parviz
, Bose, Sanjeeb T.
, Agrawal, Rahul
in
Aerospace sciences
/ Approximation
/ Boundary layers
/ Differential equations
/ ENGINEERING
/ Equilibrium
/ flow separation
/ Fluid flow
/ Friction
/ High Reynolds number
/ integral method
/ Laminar boundary layer
/ Laminar flow
/ Methods
/ Momentum
/ Potential flow
/ Pressure effects
/ Pressure gradients
/ Reynolds number
/ Separation
/ Thickness
/ Turbulent boundary layer
/ turbulent boundary layers
/ Turbulent flow
/ Two dimensional analysis
/ Two dimensional boundary layer
/ Two dimensional flow
/ Velocity
/ WIND ENERGY
2024
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An extension of Thwaites’ method for turbulent boundary layers
Journal Article
An extension of Thwaites’ method for turbulent boundary layers
2024
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Overview
Thwaites ( Aeronaut. Q. , vol. 1, 1949, pp. 245–280) developed an approximate method for determining the evolution of laminar boundary layers. The approximation follows from an assumption that the growth of a laminar boundary layer in the presence of pressure gradients could be parameterized solely as a function of the Holstein–Bohlen flow parameter, thus reducing the von Kármán momentum integral to a first-order ordinary differential equation. This method is useful for the analysis of laminar flows, and in computational potential flow solvers to account for the viscous effects. In this work, an approximate method for determining the momentum thickness of a two-dimensional, turbulent boundary layer is proposed following Thwaites’ work. It is shown that the method provides good estimates of the momentum thickness for multiple boundary layers, including both favourable and adverse pressure gradient effects, up to the point of separation. In the limit of high Reynolds numbers, it is possible to derive a criterion for the onset of separation from the proposed model, which is shown to be in agreement with prior empirical observations (Alber, 9th Aerospace Sciences Meeting, 1971 ). The sensitivity of the separation location with respect to upstream perturbations is also analysed through this model for the NASA/Boeing speed bump and the transonic Bachalo–Johnson bump.
Publisher
Cambridge University Press
Subject
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