THIRD ORDER ITERATIVE METHOD FOR SOLVING NON-LINEAR PARABOLIC PARTIAL DIFFERENTIAL EQUATION IN FINANCIAL APPLICATION

Kedir Aliyi Koroche
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Abstract

In this paper, third order iterative scheme is presented for working the solution the non-linear stochastic parabolic equation in one dimensional space. First, the given result sphere is discretized by using invariant discretization grid point. Next, by using Taylor series expansion we gain the discretization of the model problem. From this, we gain the system of nonlinear ordinary difference equations.  By rearranging this scheme, we gain iterative schemes which is called gauss Jacobean iterative scheme. To validate the convergences of the proposed system, three model illustrations are considered and answered it at each specific grid point on its result sphere. The coincident (convergent) analysis of the present techniques is worked by supported the theoretical and fine statements and the delicacy of the result is attained. The delicacy of the present techniques has been shown in the sense of average absolute error (AAE), root mean square error norm and point-wise maximum absolute error norm and comparing gets crimes in the result attained in literature and these results are also presented in tables and graphs. The physical gets of results between numerical versus are also been presented in terms of graphs. As we can see from the table and graphs, the present system approach are approximates the exact result veritably well and it's relatively effective and virtually well suited for working the solution for non-linear parabolic equation.
三阶迭代法求解非线性抛物型偏微分方程在金融中的应用
本文给出了一维空间中求解非线性随机抛物型方程的三阶迭代格式。首先,利用不变离散化网格点对给定结果球进行离散化;其次,利用泰勒级数展开,得到了模型问题的离散化。由此,我们得到了非线性常差分方程组。通过对该格式的重新排列,得到高斯雅可比迭代格式。为了验证所提出系统的收敛性,考虑了三个模型实例,并在其结果球上的每个特定网格点上回答了它。对现有技术进行了符合(收敛)分析,支持了理论和精细的表述,得到了精确的结果。本方法在平均绝对误差(AAE)、均方根误差范数和逐点最大绝对误差范数意义上的准确性已在文献中得到体现,并以图表形式给出了这些结果。并以图形形式给出了数值与数值结果的物理关系。从表和图中可以看出,目前的系统方法确实很好地逼近了确切的结果,它相对有效,实际上很适合求解非线性抛物方程的解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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