Recent Progress in Studies of Stability of Numerical Schemes

Applications and modeling of various phenomena in all areas of scientific research require finding numerical solutions for differential, partial differential, integral, or integro-differential equations. In addition to proving theoretical convergence and giving error estimates, stability of numerica...

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Main Authors: Taras I. Lakoba, Sanda Micula
Format: Article
Language:English
Published: MDPI AG 2022-12-01
Series:Symmetry
Subjects:
Online Access:https://www.mdpi.com/2073-8994/14/12/2692
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author Taras I. Lakoba
Sanda Micula
author_facet Taras I. Lakoba
Sanda Micula
author_sort Taras I. Lakoba
collection DOAJ
description Applications and modeling of various phenomena in all areas of scientific research require finding numerical solutions for differential, partial differential, integral, or integro-differential equations. In addition to proving theoretical convergence and giving error estimates, stability of numerical methods for such operator equations is a fundamental property that it is necessary for the method to produce a valid solution. This Special Issue focuses on new theoretical and numerical studies concerning the techniques used for proving stability or instability of numerical schemes, which extend or improve known results. It also includes applications to non-linear physical, chemical, and engineering systems, arising in dynamics of waves, diffusion, or transport problems.
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spelling doaj.art-89b2896c9edb464fa7c6a908287af8f52023-11-24T18:21:31ZengMDPI AGSymmetry2073-89942022-12-011412269210.3390/sym14122692Recent Progress in Studies of Stability of Numerical SchemesTaras I. Lakoba0Sanda Micula1Department of Mathematics and Statistics, University of Vermont, Burlington, VT 05405, USADepartment of Mathematics and Computer Science, Babeş-Bolyai University, 400084 Cluj-Napoca, RomaniaApplications and modeling of various phenomena in all areas of scientific research require finding numerical solutions for differential, partial differential, integral, or integro-differential equations. In addition to proving theoretical convergence and giving error estimates, stability of numerical methods for such operator equations is a fundamental property that it is necessary for the method to produce a valid solution. This Special Issue focuses on new theoretical and numerical studies concerning the techniques used for proving stability or instability of numerical schemes, which extend or improve known results. It also includes applications to non-linear physical, chemical, and engineering systems, arising in dynamics of waves, diffusion, or transport problems.https://www.mdpi.com/2073-8994/14/12/2692numerical stabilityUlam–Hyers stabilitysplit–step exponential schemenumerical schemes for stochastic differential equationsdifference schemes with interpolationKPZ equation
spellingShingle Taras I. Lakoba
Sanda Micula
Recent Progress in Studies of Stability of Numerical Schemes
Symmetry
numerical stability
Ulam–Hyers stability
split–step exponential scheme
numerical schemes for stochastic differential equations
difference schemes with interpolation
KPZ equation
title Recent Progress in Studies of Stability of Numerical Schemes
title_full Recent Progress in Studies of Stability of Numerical Schemes
title_fullStr Recent Progress in Studies of Stability of Numerical Schemes
title_full_unstemmed Recent Progress in Studies of Stability of Numerical Schemes
title_short Recent Progress in Studies of Stability of Numerical Schemes
title_sort recent progress in studies of stability of numerical schemes
topic numerical stability
Ulam–Hyers stability
split–step exponential scheme
numerical schemes for stochastic differential equations
difference schemes with interpolation
KPZ equation
url https://www.mdpi.com/2073-8994/14/12/2692
work_keys_str_mv AT tarasilakoba recentprogressinstudiesofstabilityofnumericalschemes
AT sandamicula recentprogressinstudiesofstabilityofnumericalschemes