2018
DOI: 10.15388/na.2018.1.5
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Numerical schemes for general Klein–Gordon equations with Dirichlet and nonlocal boundary conditions

Abstract: In this work, we address the problem of solving nonlinear general Klein–Gordon equations (nlKGEs). Different fourth- and sixth-order, stable explicit and implicit, finite difference schemes are derived. These new methods can be considered to approximate all type of Klein–Gordon equations (KGEs) including phi-four, forms I, II, and III, sine-Gordon, Liouville, damped Klein–Gordon equations, and many others. These KGEs have a great importance in engineering and theoretical physics.The higher-order methods propos… Show more

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Cited by 6 publications
(5 citation statements)
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“…By substituting this expression into nonlocal conditions (15), we get system (11). A further proof of the lemma is coincident with that of Lemma 2.…”
Section: Eigenvalue Problem Of a Difference Operatormentioning
confidence: 56%
See 1 more Smart Citation
“…By substituting this expression into nonlocal conditions (15), we get system (11). A further proof of the lemma is coincident with that of Lemma 2.…”
Section: Eigenvalue Problem Of a Difference Operatormentioning
confidence: 56%
“…Eigenvalue problems of difference operators with nonlocal conditions usually arise when solving boundary problems by the finite difference method. The spectrum properties of difference operators with various nonlocal boundary conditions were explored for investigation of the stability of difference schemes [1,2,4,7,8,10,11]. Another sphere of such a spectrum analysis application is convergence of iterative methods for the systems of difference equations [17,19,22], in particular, for nonlinear elliptic equations with integral boundary conditions [22,23].…”
Section: Introduction and Problem Statementmentioning
confidence: 99%
“…We tried to develop explicit finite-difference methods with one level less than the one given by equation ( 36) in a similar way to those methods developed and analyzed in [68,69], but there n c was established as 1, and for stability purposes now we utilized n c < 1. Other numerical schemes proposed for similar nonlinear Klein-Gordon (or similar) hyperbolic partial differential equations are described in [70][71][72] and references therein, they are mostly based on finite difference algorithms in time and finite difference or spectral methods in space.…”
Section: Conclusion and Further Commentsmentioning
confidence: 99%
“…The integral conditions in the form of (2), (3) are used by many authors considering nonlocal problems, also for differential equations of other types: for hyperbolic equations [16], equations with fractional derivatives [17], problems with complex parameter in the equation or nonlocal condition [23].…”
Section: Introduction and Problem Formulationmentioning
confidence: 99%