An eigenvalue method is presented for solving the transient heat conduction problem with time‐dependent or time‐independent boundary conditions. The spatial domain is divided into finite elements and at each finite element node, a closed‐form expression for the temperature as a function of time can be obtained. Three test problems which have exact solutions were solved in order to examine the merits of the eigenvalue method. It was found that this method yields accurate results even with a coarse mesh. It provides exact solution in the time domain and therefore has none of the time‐step restrictions of the conventional numerical techniques. The temperature field at any given time can be obtained directly from the initial condition and no time‐marching is necessary. For problems where the steady‐state solution is known, only a few dominant eigenvalues and their corresponding eigenvectors need to be computed. These features lead to great savings in computation time, especially for problems with long time duration. Furthermore, the availability of the closed form expressions for the temperature field makes the present method very attractive for coupled problems such as solid—fluid and thermal—structure interactions.
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1 March 1992
Review Article|
March 01 1992
A FINITE ELEMENT EIGENVALUE METHOD FOR SOLVING TRANSIENT HEAT CONDUCTION PROBLEMS Available to Purchase
JIAKANG ZHONG;
JIAKANG ZHONG
Department of Mechanical Engineering, University of Kentucky, Lexington, KY 40506–0046, USA
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LOUIS C. CHOW;
LOUIS C. CHOW
Department of Mechanical Engineering, University of Kentucky, Lexington, KY 40506–0046, USA
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WON SOON CHANG
WON SOON CHANG
Air Force Wright Laboratory, Wright‐Patterson AFB, Ohio, USA
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Publisher: Emerald Publishing
Online ISSN: 1758-6585
Print ISSN: 0961-5539
© MCB UP Limited
1992
International Journal of Numerical Methods for Heat & Fluid Flow (1992) 2 (3): 243–259.
Citation
ZHONG J, CHOW LC, SOON CHANG W (1992), "A FINITE ELEMENT EIGENVALUE METHOD FOR SOLVING TRANSIENT HEAT CONDUCTION PROBLEMS". International Journal of Numerical Methods for Heat & Fluid Flow, Vol. 2 No. 3 pp. 243–259, doi: https://doi.org/10.1108/eb017493
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