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Steady State Natural Convection in Vertical Heated Rectangular Channel between Two Vertical Parallel MTR-Type Fuel Plates
Authors: Djalal Hamed
Abstract:
The aim of this paper is to perform an analytic solution of steady state natural convection in a narrow rectangular channel between two vertical parallel MTR-type fuel plates, imposed under a cosine shape heat flux to determine the margin of the nuclear core power at which the natural convection cooling mode can ensure a safe core cooling, where the cladding temperature should not be reach the specific safety limits (90 °C). For this purpose, a simple computer program is developed to determine the principal parameter related to the nuclear core safety such as the temperature distribution in the fuel plate and in the coolant (light water) as a function of the reactor power. Our results are validated throughout a comparison against the results of another published work, which is considered like a reference of this study.Keywords: Buoyancy force, friction force, friction factor, MTR-type fuel, natural convection, vertical heated rectangular channel.
Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1474365
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[1] D. Jo, “Cooling capacity of plate type research reactors during the natural convective cooling mode,” Progress in Nuclear Energy, no. 56, 2012, pp. 37-42.
[2] T. M. M. A. Elmaaty, “Natural convection cooling for LEU irradiated fuel plates,” Annals of nuclear energy, vol. 40, 2012, pp. 116-121.
[3] K. Ardaneh, “An analytical solution for thermal–hydraulic analysis and safety margins in MTR-type research reactors cooled by natural convection,” Annals of nuclear energy, vol. 51, 2012, pp. 282-288.
[4] Invap S.E, “Caudvap v 3.60, MTR PC user’s manual”, 2012.
[5] N. E. Todrea, “Nuclear Systems I,” Hemisphere Publishing Corporation, Washington, 1990.
[6] McAdams, W. H, “Heat Transmission,” Third Edition, McGraw Hill, 1958.
[7] Pascal Pezzani, “Propriétés Thermodynamiques de l’eau,” Techniques de l’Ingénieur, 1992, w120.