Three-Layer Compact Difference Scheme for a Hyperbolic Heat Conduction Equation

On the basis of hyperbolic heat conduction equation, three-layer compact difference schemes of orders 4 + 2, 4 + 4 and a Saul’ev scheme of order 6 + 3 are constructed on minimal three-point stencils in space. The close relationship between the explicit Chetverushkin scheme and the three-layer asymptotically stable Samarskii scheme is shown. It is also proposed to combine the classical models of filtration and heat conduction into a single mathematical model based on the definition of a generalized solution according to Godunov. The algorithms of order 4 + 2 obtained in this way are generalized to quasi–linear parabolic equations with arbitrary nonlinearity. Numerical calculations of a number of test problems are given, illustrating the efficiency of compact schemes.

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Publication Details

Journal
Mathematical Models and Computer Simulations
Published
2025-12-01
DOI
https://doi.org/10.1134/s2070048225700413
Citations
1
Primary Topic
Differential Equations and Numerical Methods
Type
article
Field-Weighted Citation Impact
2.63
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article

Three-Layer Compact Difference Scheme for a Hyperbolic Heat Conduction Equation

Vo Thi Kim Tuyen, B. D. Utebaev, П. П. Матус
1 citations
Mathematical Models and Computer Simulations
Differential Equations and Numerical Methods
2.63
article

Three-Layer Compact Difference Scheme for a Hyperbolic Heat Conduction Equation

Vo Thi Kim Tuyen, B. D. Utebaev, П. П. Матус
article en
1 citations

Abstract

On the basis of hyperbolic heat conduction equation, three-layer compact difference schemes of orders 4 + 2, 4 + 4 and a Saul’ev scheme of order 6 + 3 are constructed on minimal three-point stencils in space. The close relationship between the explicit Chetverushkin scheme and the three-layer asymptotically stable Samarskii scheme is shown. It is also proposed to combine the classical models of filtration and heat conduction into a single mathematical model based on the definition of a generalized solution according to Godunov. The algorithms of order 4 + 2 obtained in this way are generalized to quasi–linear parabolic equations with arbitrary nonlinearity. Numerical calculations of a number of test problems are given, illustrating the efficiency of compact schemes.

Mathematical Models and Computer SimulationsVol. 17(6)
Academy of Sciences Republic of Uzbekistan (UZ), National Academy of Sciences of Belarus (BY), Institute of Physiology National Academy of Sciences of Belarus (BY), The Institute of History of the National Academy of Sciences of Belarus (BY), Institute of Applied Physics (BY), Karakalpak State University (UZ)
Openalex Percentile: Top 8%
Differential Equations and Numerical Methods
2.63
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