A DOUBLE INTERPOLATION APPROACH TO APPROXIMATE HEAT CONDUCTION EQUATION WITH SOURCE/SINK TERM    

Authors : KRISHAN KANT SINGH

Publishing Date : 2025

DOI : https://doi.org/10.52458/9788197112492.nsp.2024.eb.ch-30

ISBN : 978-81-977620-7-9

Pages : 289-302

Chapter id : RBS/NSP/EB/RAASTTSE/2024/Ch-30

Abstract : This paper proposes a novel double interpolation approach to approximate the heat conduction equation with a source/sink term. The heat conduction equation is a fundamental partial differential equation governing the transfer of thermal energy in various physical systems. In many practical scenarios, source or sink terms are present, representing external heat generation or absorption. Traditional numerical methods may struggle to accurately capture the behavior of such systems. This approach enhances the accuracy of the approximation by effectively capturing the spatial and temporal variations of the temperature distribution. We demonstrate the effectiveness of our approach through numerical experiments and comparisons with exact solution. The results show that the double interpolation method offers significant improvements in accuracy and computational efficiency particularly when dealing with complex heat conduction problems involving source or sink terms. Overall, this study contributes to advancing the numerical approximation techniques for heat conduction equations with practical implications in various fields, including thermal engineering, materials science, and environmental modeling.

Keywords : Heat conduction equation, Source/sink term, Double interpolation, Approximation, Accuracy.

Cite : Singh, K. K. (2024). A Double Interpolation Approach To Approximate Heat Conduction Equation With Source/Sink Term (1st ed., pp. 289-302). Noble Science Press. https://doi.org/10.52458/9788197112492.nsp.2024.eb.ch-30

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