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Near-Wall Modeling of Compressible Turbulent Flow
| AUTHOR | Nasa, National Aeronautics and Space Adm |
| PUBLISHER | Independently Published (11/10/2018) |
| PRODUCT TYPE | Paperback (Paperback) |
Description
A near-wall two-equation model for compressible flows is proposed. The model is formulated by relaxing the assumption of dynamic field similarity between compressible and incompressible flows. A postulate is made to justify the extension of incompressible models to ammount for compressibility effects. This requires formulation the turbulent kinetic energy equation in a form similar to its incompressible counterpart. As a result, the compressible dissipation function has to be split into a solenoidal part, which is not sensitive to changes of compressibility indicators, and a dilatational part, which is directly affected by these changes. A model with an explicit dependence on the turbulent Mach number is proposed for the dilatational dissipation rate. So, Ronald M. C. Unspecified Center...
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Product Format
Product Details
ISBN-13:
9781731102867
ISBN-10:
1731102860
Binding:
Paperback or Softback (Trade Paperback (Us))
Content Language:
English
More Product Details
Page Count:
80
Carton Quantity:
51
Product Dimensions:
8.50 x 0.17 x 11.00 inches
Weight:
0.46 pound(s)
Country of Origin:
US
Subject Information
BISAC Categories
Science | Space Science - General
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A near-wall two-equation model for compressible flows is proposed. The model is formulated by relaxing the assumption of dynamic field similarity between compressible and incompressible flows. A postulate is made to justify the extension of incompressible models to ammount for compressibility effects. This requires formulation the turbulent kinetic energy equation in a form similar to its incompressible counterpart. As a result, the compressible dissipation function has to be split into a solenoidal part, which is not sensitive to changes of compressibility indicators, and a dilatational part, which is directly affected by these changes. A model with an explicit dependence on the turbulent Mach number is proposed for the dilatational dissipation rate. So, Ronald M. C. Unspecified Center...
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