Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems

A new class of spectral methods for solving two-point boundary value problems for linear ordinary differential equations is presented in the paper. Although these methods are based on trigonometric functions, they can be used for solving periodic as well as nonperiodic problems. Instead of using bas...

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Main Authors: Bojan Orel, Andrej Perne
Format: Article
Language:English
Published: Hindawi Limited 2014-01-01
Series:Journal of Applied Mathematics
Online Access:http://dx.doi.org/10.1155/2014/572694
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spelling doaj-77e03bc16d954ecd9368d371fd3b33552020-11-24T22:28:10ZengHindawi LimitedJournal of Applied Mathematics1110-757X1687-00422014-01-01201410.1155/2014/572694572694Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value ProblemsBojan Orel0Andrej Perne1Faculty of Computer and Information Science, University of Ljubljana, Tržaška Cesta 25, 1000 Ljubljana, SloveniaFaculty of Electrical Engineering, University of Ljubljana, Tržaška Cesta 25, 1000 Ljubljana, SloveniaA new class of spectral methods for solving two-point boundary value problems for linear ordinary differential equations is presented in the paper. Although these methods are based on trigonometric functions, they can be used for solving periodic as well as nonperiodic problems. Instead of using basis functions periodic on a given interval −1,1, we use functions periodic on a wider interval. The numerical solution of the given problem is sought in terms of the half-range Chebyshev-Fourier (HCF) series, a reorganization of the classical Fourier series using half-range Chebyshev polynomials of the first and second kind which were first introduced by Huybrechs (2010) and further analyzed by Orel and Perne (2012). The numerical solution is constructed as a HCF series via differentiation and multiplication matrices. Moreover, the construction of the method, error analysis, convergence results, and some numerical examples are presented in the paper. The decay of the maximal absolute error according to the truncation number N for the new class of Chebyshev-Fourier-collocation (CFC) methods is compared to the decay of the error for the standard class of Chebyshev-collocation (CC) methods.http://dx.doi.org/10.1155/2014/572694
collection DOAJ
language English
format Article
sources DOAJ
author Bojan Orel
Andrej Perne
spellingShingle Bojan Orel
Andrej Perne
Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems
Journal of Applied Mathematics
author_facet Bojan Orel
Andrej Perne
author_sort Bojan Orel
title Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems
title_short Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems
title_full Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems
title_fullStr Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems
title_full_unstemmed Chebyshev-Fourier Spectral Methods for Nonperiodic Boundary Value Problems
title_sort chebyshev-fourier spectral methods for nonperiodic boundary value problems
publisher Hindawi Limited
series Journal of Applied Mathematics
issn 1110-757X
1687-0042
publishDate 2014-01-01
description A new class of spectral methods for solving two-point boundary value problems for linear ordinary differential equations is presented in the paper. Although these methods are based on trigonometric functions, they can be used for solving periodic as well as nonperiodic problems. Instead of using basis functions periodic on a given interval −1,1, we use functions periodic on a wider interval. The numerical solution of the given problem is sought in terms of the half-range Chebyshev-Fourier (HCF) series, a reorganization of the classical Fourier series using half-range Chebyshev polynomials of the first and second kind which were first introduced by Huybrechs (2010) and further analyzed by Orel and Perne (2012). The numerical solution is constructed as a HCF series via differentiation and multiplication matrices. Moreover, the construction of the method, error analysis, convergence results, and some numerical examples are presented in the paper. The decay of the maximal absolute error according to the truncation number N for the new class of Chebyshev-Fourier-collocation (CFC) methods is compared to the decay of the error for the standard class of Chebyshev-collocation (CC) methods.
url http://dx.doi.org/10.1155/2014/572694
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AT andrejperne chebyshevfourierspectralmethodsfornonperiodicboundaryvalueproblems
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