The Laminar Boundary Layer On A Yawed Infinite Cylinder PDF Download

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Compressible Laminar Boundary Layer Over a Yawed Infinite Cylinder with Heat Transfer and Arbitrary Prandtl Number

Compressible Laminar Boundary Layer Over a Yawed Infinite Cylinder with Heat Transfer and Arbitrary Prandtl Number
Author: Eli Reshotko
Publisher:
Total Pages: 86
Release: 1957
Genre: Aerodynamic heating
ISBN:

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The equations for development of the compressible laminar boundary layer over a yawed infinite cylinder are presented. For compressible flow with a pressure gradient the chordwise and spanwise flows are not independent. By use of the Stewartson transformation and a linear viscosity-temperature relation, a set of three simultaneous ordinary differential equations is obtained in a form yielding similar solutions. These equations are solved for stagnation-line flow for surface temperatures from zero to twice the free-stream stagnation temperature and for a wide range of yaw angle and free-stream Mach number.


Similar Solutions for the Compressible Boundary Layer on a Yawed Cylinder with Transpiration Cooling

Similar Solutions for the Compressible Boundary Layer on a Yawed Cylinder with Transpiration Cooling
Author: Ivan E. Beckwith
Publisher:
Total Pages: 44
Release: 1959
Genre: Boundary layer
ISBN:

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Heat-transfer and skin-friction parameters obtained from exact solutions to the laminar compressible boundary-layer equations for infinite cylinders in yaw are presented. The effects of transpiration cooling, Prandtl number, pressure gradient, wall temperature, and viscosity relation were investigated. It is shown that as the Mach number is increased for a given large yaw angle the effects of pressure gradient become larger and the quantity of coolant required to maintain a given wall temperature is also increased. The use of a linear viscosity-temperature relation gives approximately the same results as the Sutherland viscosity-temperature relation except for very high aerodynamic heating rates.