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2012
DOI: 10.1155/2012/796814
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Exponential Time Integration and Second‐Order Difference Scheme for a Generalized Black‐Scholes Equation

Abstract: We apply an exponential time integration scheme combined with a central difference scheme on a piecewise uniform mesh with respect to the spatial variable to evaluate a generalized Black-Scholes equation. We show that the scheme is second-order convergent for both time and spatial variables. It is proved that the scheme is unconditionally stable. Numerical results support the theoretical results.

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Cited by 8 publications
(11 citation statements)
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“…This approximation is similar to the one in [21] with central difference on non uniform grid. We approximate the convection term using the standard upwinding technique as following…”
mentioning
confidence: 58%
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“…This approximation is similar to the one in [21] with central difference on non uniform grid. We approximate the convection term using the standard upwinding technique as following…”
mentioning
confidence: 58%
“…In recent years, the computational complexity of mathematical models employed in financial mathematics has witnessed a tremendous growth (see [22,21,15] and references therein). The aims of this paper is to solve numerically our delayed nonlinear model for firm market value along with the corresponding RPDEs, using real data from firms.…”
Section: Introductionmentioning
confidence: 99%
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“…It is obviously that the decrease of the collocation points can improve the efficiency of the algorithm. The performance of Mei's interval wavelet [4] relates to the external interpolation points ( ), and the choice scheme of was not given in [3]. It was pointed out in [23] that the bigger usually introduces bigger condition number which can decrease the precision greatly.…”
Section: Black-scholes Equation and Its Interval Wavelet Approximationmentioning
confidence: 99%
“…In contrast with the traditional Black-Scholes equation, it is almost impossible to find the analytical solution of the nonlinear Black-Scholes equations. Most of the numerical schemes focus on the finite difference methods [2,3]. As the matter of fact, the wavelet precise integration method (WPIM) is a simple and effective method for linear partial differential equations proposed by Mei et al [4].…”
Section: Introductionmentioning
confidence: 99%