DocumentCode
630673
Title
Bessel-fourier theory for acoustic propagation in inviscid fluid flow confined by rigid cylindrical waveguide
Author
Yong Chen ; Yiyong Huang ; Yong Zhao ; Lu Cao ; Xiaoqian Chen
Author_Institution
Inst. of Space Technol., Nat. Univ. of Defense Technol., Changsha, China
fYear
2013
fDate
17-19 June 2013
Firstpage
2109
Lastpage
2114
Abstract
To theoretically analyze the performance of ultrasonic flow meter for circular pipeline flow, acoustic wave propagation in inviscid fluid confined by the rigid cylindrical waveguide in the presence of axial shear mean flow is investigated. After a detailed review of contributions in the literature, a comprehensive mathematical model of flow acoustics is deduced based on the conservation of mass and momentum where fluid viscosity and thermal conductivity is not considered. Then a novel solution based on the Bessel-Fourier theory, which is orthogonal and complete in Lebesgue Space, is proposed which can transform the second-order differential equation to algebraic equations. For uniform mean flow profile, the simplified solution deduced from the present method is consistent with the contribution in the literature.
Keywords
Bessel functions; Fourier analysis; acoustic wave propagation; algebra; circular waveguides; differential equations; pipe flow; pipelines; shear flow; Bessel-Fourier theory; Lebesgue Space; acoustic wave propagation; algebraic equations; axial shear mean flow; circular pipeline flow; confined flow; inviscid fluid flow; mass conservation; mathematical model; rigid cylindrical waveguide; second-order differential equation; thermal conductivity; ultrasonic flow meter; viscosity; Acoustics; Boundary conditions; Equations; Fluids; Mathematical model; Pipelines; Propagation;
fLanguage
English
Publisher
ieee
Conference_Titel
American Control Conference (ACC), 2013
Conference_Location
Washington, DC
ISSN
0743-1619
Print_ISBN
978-1-4799-0177-7
Type
conf
DOI
10.1109/ACC.2013.6580147
Filename
6580147
Link To Document