Theoretical simulation of temperature distribution in a gun barrel based on the DPL model

In this paper, an exact closed form solution is introduced for the heat conduction equation in cylindrical coordinates under consecutive inner time dependent surface heat flux by both the Fourier and dual-phase-lag (DPL) models. The solution is used to calculate the temperature distribution in a gun...

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Veröffentlicht in:Journal of Theoretical and Applied Mechanics (Warsaw) 2019-01, Vol.57 (3), p.685-696
Hauptverfasser: Talaee, Mohammad Reza, Hosseinli, Seyed Ali
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description In this paper, an exact closed form solution is introduced for the heat conduction equation in cylindrical coordinates under consecutive inner time dependent surface heat flux by both the Fourier and dual-phase-lag (DPL) models. The solution is used to calculate the temperature distribution in a gun barrel subjected to single and consecutive shoots, and the results are compared with literature. The parametrical study is done using the analytical solution to show the effect of shooting frequency which leads to different heat power from each fire shoot and temperature distribution. The result shows good ability of analytical solution for estimation of temperature distribution in the gun barrel, especially under consecutive shoots in which unexpected incidents such as barrel melting is so probable. The closed form solution can be applied for verification of other numerical works in this area.
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subjects Closed form solutions
Conduction heating
Conductive heat transfer
Cylindrical coordinates
Exact solutions
Heat
Heat flux
Mathematical analysis
Phase lag
Temperature distribution
title Theoretical simulation of temperature distribution in a gun barrel based on the DPL model
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