A Nonsimilar Solution for Multicomponent Reacting Laminar and Turbulent Boundary Layer Flows Including Transverse Curvature

Abstract

A mathematical model of a multicomponent reacting nonsimilar laminar or turbulent boundary layer flow including transverse curvature effects is presented, and a method of solution is given. The formulation is an extension of an earlier work in which thermal and molecular diffusion were treated in terms of a bifurcation approximation for binary diffusion coefficients. In the present analysis, a turbulent model is added which employs a mixing length model for eddy viscosity in the wall region with consideration of injection or suction effects. The wake region eddy viscosity is taken to be proportional to the free stream velocity and local velocity defect thickness. Transverse curvature effects are also incorporated into the present analysis. A modification of the Levy-Lees transformation is used to transform the equations of motion to a coordinate plane, where the conservation equations are integrated across boundary layer strips. Derivatives in the normal direction are related to one another by Taylor series truncated to reflect a quadratic or cubic approximation, and streamwise derivatives are expressed in finite difference form. The resultant set of equations is solved by general Newton-Raphson iteration.

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Document Details

Document Type
Technical Report
Publication Date
Mar 01, 1970
Accession Number
AD0867904

Entities

People

  • Larry W. Anderson
  • Robert M. Kendall

Tags

Communities of Interest

  • Energy and Power Technologies
  • Weapons Technologies

DTIC Thesaurus Topics

  • Boundary Layer
  • Boundary Layer Flow
  • Computational Fluid Dynamics
  • Computational Science
  • Computer Programs
  • Differential Equations
  • Diffusion
  • Diffusion Coefficient
  • Equations
  • Equations Of Motion
  • Fluid Dynamics
  • Fluid Flow
  • Mathematical Models
  • Transport Properties
  • Turbulent Boundary Layer
  • Turbulent Flow
  • Two Dimensional

Fields of Study

  • Physics

Readers

  • Fluid Dynamics.