FOURTH AND SIXTH ORDER COMPACT FINITE DIFFERENCE SCHEMES FOR PARTIAL INTEGRO-DIFFERENTIAL EQUATIONS
J. Math. Comput. Sci. • 2012
Publication Information
Authors
AMAL F. SOLIMAN; MAGDI S. EL-AZAB; A M.A. EL-ASYED
Keywords
fourth and sixth order compact finite difference method; PIDE; Partial integro-differential
equations; Collocation method.
Journal
J. Math. Comput. Sci.
Publisher
Not Available
Volume
2
Issue
Not Available
Pages
206-225
publication.type
International
Paper Link
Not Available
Supplementary Materials
Not Available
Abstract
In the present paper a numerical method based on fourth and sixth order finite difference
with collocation method is presented for the numerical solution of partial integro-differential equation
(PIDE). A composite weighted trapezoidal rule is manipulated to handle the numerical integrations
which results in a closed-form difference scheme. The efficiency and accuracy of the scheme is validated
by its application to one test problem which have exact solutions. Numerical results show that
theses fourth and sixth-order schemes have the expected accuracy. The most advantages of compact
finite difference method for PIDE are that it obtains high order of accuracy, while the time complexity
to solve the matrix equations after we use compact finite difference method on PIDE is O(N), and it
can solve very general case of PIDE.
with collocation method is presented for the numerical solution of partial integro-differential equation
(PIDE). A composite weighted trapezoidal rule is manipulated to handle the numerical integrations
which results in a closed-form difference scheme. The efficiency and accuracy of the scheme is validated
by its application to one test problem which have exact solutions. Numerical results show that
theses fourth and sixth-order schemes have the expected accuracy. The most advantages of compact
finite difference method for PIDE are that it obtains high order of accuracy, while the time complexity
to solve the matrix equations after we use compact finite difference method on PIDE is O(N), and it
can solve very general case of PIDE.
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