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  4. Similarity and numerical analysis of the generalized Levèque problem to predict the thermal boundary layer
 
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Similarity and numerical analysis of the generalized Levèque problem to predict the thermal boundary layer

Publikationstyp
Journal Article
Date Issued
2018-08
Sprache
English
Author(s)
Belhocine, Ali  
Abdullah, Oday Ibraheem  
Institut
Laser- und Anlagensystemtechnik G-2  
TORE-URI
http://hdl.handle.net/11420/2879
Journal
International journal on interactive design and manufacturing  
Volume
12
Issue
3
Start Page
1015
End Page
1025
Citation
International Journal on Interactive Design and Manufacturing 3 (12): 1015-1025 (2018-08-01)
Publisher DOI
10.1007/s12008-017-0434-8
Scopus ID
2-s2.0-85035809752
In the thermal entrance region, a thermal boundary layer develops and also reaches the circular tube center. The fully developed region is the zone in which the flow is both hydrodynamically and thermally developed. The heat flux will be higher near the inlet because the heat transfer coefficient is highest at the tube inlet where the thickness of the thermal boundary layer is zero, and decreases gradually to the fully developed value. In this paper, the assumptions implicit in Leveque’s approximation are re-examined, and the analytical solution of the problem with additional boundary conditions, for the temperature field and the boundary layer thickness through the long tube is presented. From the mathematical side, numerical techniques for solving the problem of fluid–structure interaction with a fully developed laminar incompressible Newtonian flow is described. By defining a similarity variable the governing equations are reduced to a dimensionless equation with an analytic solution in the entrance region. This report gives justification for the similarity variable via scaling analysis, details the process of converting to a similarity form, and presents a similarity solution. The analytical solutions are then checked against numerical solution programming by FORTRAN code obtained via using Runge–Kutta fourth order (RK4) method. Finally, others important thermal results obtained from this analysis, such as; approximate Nusselt number in the thermal entrance region was discussed in detail.
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