A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques

An examination of selected two- and three-dimensional turbulent boundary layer data sets was made to determine the consistency of these data sets with their appropriate momentum integral equations. Several turbulent boundary layer experiments were reviewed to determined which of these provided adequ...

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Bibliographic Details
Main Author: Fitts, David O.
Other Authors: Mechanical Engineering
Format: Others
Language:en_US
Published: Virginia Polytechnic Institute and State University 2017
Subjects:
Online Access:http://hdl.handle.net/10919/80197
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spelling ndltd-VTETD-oai-vtechworks.lib.vt.edu-10919-801972020-09-29T05:39:26Z A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques Fitts, David O. Mechanical Engineering LD5655.V855 1982.F577 Turbulent boundary layer An examination of selected two- and three-dimensional turbulent boundary layer data sets was made to determine the consistency of these data sets with their appropriate momentum integral equations. Several turbulent boundary layer experiments were reviewed to determined which of these provided adequate data so that they could be examined using this method. The selected data sets were used to numerically integrate and compare the two sides of the appropriate momentum integral equations in an extension of the Coles' momentum integral (PL-PR) method originally derived for two-dimensional flow. The effects of small three-dimensionality in a nominally two-dimensional flow were also studied. Three-dimensionality due to converging or diverging collateral flow and converging or diverging skewed flow about a plane of symmetry was investigated. The momentum integral examination of two-dimensional and quasi two-dimensional data sets was verified to be a useful and convenient means of data set validation. Very small amounts of three dimensionality in a nominally two-dimensional flow could have large effects on and adversely affect the outcome of a momentum integral validation of the data set. Three-dimensionality of the order of magnitude of experimental uncertainty, in the form of collateral or skewed convergence/divergence of the flow at a plane of symmetry, was shown to have large adverse effects on the momentum integral validation. Investigations of arbitrary.three-dimensional flows were generally found to lack sufficient data to perform an accurate validation using this PL-PR technique extended to such flows. Master of Science 2017-11-09T21:31:36Z 2017-11-09T21:31:36Z 1982 Thesis Text http://hdl.handle.net/10919/80197 en_US OCLC# 8706480 In Copyright http://rightsstatements.org/vocab/InC/1.0/ xi, 114, [2] leaves application/pdf application/pdf Virginia Polytechnic Institute and State University
collection NDLTD
language en_US
format Others
sources NDLTD
topic LD5655.V855 1982.F577
Turbulent boundary layer
spellingShingle LD5655.V855 1982.F577
Turbulent boundary layer
Fitts, David O.
A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
description An examination of selected two- and three-dimensional turbulent boundary layer data sets was made to determine the consistency of these data sets with their appropriate momentum integral equations. Several turbulent boundary layer experiments were reviewed to determined which of these provided adequate data so that they could be examined using this method. The selected data sets were used to numerically integrate and compare the two sides of the appropriate momentum integral equations in an extension of the Coles' momentum integral (PL-PR) method originally derived for two-dimensional flow. The effects of small three-dimensionality in a nominally two-dimensional flow were also studied. Three-dimensionality due to converging or diverging collateral flow and converging or diverging skewed flow about a plane of symmetry was investigated. The momentum integral examination of two-dimensional and quasi two-dimensional data sets was verified to be a useful and convenient means of data set validation. Very small amounts of three dimensionality in a nominally two-dimensional flow could have large effects on and adversely affect the outcome of a momentum integral validation of the data set. Three-dimensionality of the order of magnitude of experimental uncertainty, in the form of collateral or skewed convergence/divergence of the flow at a plane of symmetry, was shown to have large adverse effects on the momentum integral validation. Investigations of arbitrary.three-dimensional flows were generally found to lack sufficient data to perform an accurate validation using this PL-PR technique extended to such flows. === Master of Science
author2 Mechanical Engineering
author_facet Mechanical Engineering
Fitts, David O.
author Fitts, David O.
author_sort Fitts, David O.
title A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
title_short A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
title_full A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
title_fullStr A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
title_full_unstemmed A study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
title_sort study of two- and three- dimensional turbulent boundary layer data sets using momentum integral techniques
publisher Virginia Polytechnic Institute and State University
publishDate 2017
url http://hdl.handle.net/10919/80197
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