Analysis of Difference Schemes of Two-Point Boundary Value Problems using the Method of Moving Nodes

This article addresses the calculation of approximation errors in numerical methods for solving differential equations. A fundamental challenge when replacing differential equations with discrete representations is ensuring that the discrete solution closely approximates the exact solution. To tackle this, a grid area is established for the difference solution, with discrete solutions evaluated at specific nodal points. Traditionally, the degree of approximation in this context is expressed using the notation, where h represents the grid step and p indicates the order of accuracy. A significant advancement in this area is the application of the moving nodes method, which enables the calculation of approximation errors at these nodal points. This method allows researchers to derive an approximate analytical expression for the discrete solution, which serves as a foundation for calculating the approximation error.

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Publication Details

Journal
Journal of Engineering Research and Sciences
Published
2025-04-01
DOI
https://doi.org/10.55708/js0406002
Primary Topic
Differential Equations and Numerical Methods
Type
article
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article

Analysis of Difference Schemes of Two-Point Boundary Value Problems using the Method of Moving Nodes

Umurdin Dalabaev, Khasanova Dilfuza
Journal of Engineering Research and Sciences
Differential Equations and Numerical Methods
article

Analysis of Difference Schemes of Two-Point Boundary Value Problems using the Method of Moving Nodes

Umurdin Dalabaev, Khasanova Dilfuza
article en

Abstract

This article addresses the calculation of approximation errors in numerical methods for solving differential equations. A fundamental challenge when replacing differential equations with discrete representations is ensuring that the discrete solution closely approximates the exact solution. To tackle this, a grid area is established for the difference solution, with discrete solutions evaluated at specific nodal points. Traditionally, the degree of approximation in this context is expressed using the notation, where h represents the grid step and p indicates the order of accuracy. A significant advancement in this area is the application of the moving nodes method, which enables the calculation of approximation errors at these nodal points. This method allows researchers to derive an approximate analytical expression for the discrete solution, which serves as a foundation for calculating the approximation error.

Journal of Engineering Research and SciencesVol. 4(6)
University of World Economy and Diplomacy (UZ)
Openalex Percentile: Top 69%
Differential Equations and Numerical Methods
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