用随机生成有限网格和二维分数阶勒让德函数求解偏微分方程

Sanaullah Mastoi, Wan Ainun Mior Othman, Umair Ali, U. A. Rajput, G. Fizza
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引用次数: 1

摘要

解决物理生命问题的方法多种多样,涉及工程、科学和生物系统。发现数值方法是近似解。通过这种方式,随机生成的有限差分网格以更少的迭代实现近似。将笛卡尔坐标和极坐标下随机生成网格的思想与二维分数阶勒让德函数的精确、迭代法、均匀网格和广义展开形式下的近似解进行了比较。最理想的和基准的方法是有限差分法在随机生成的网格上笛卡尔坐标,极坐标用于数值解。这个概念激发了对随机生成网格效果的研究。在随机生成的网格上求解二维方程,以测试随机生成的网格及其实现。通过对仿真剖面的比较,分析了数值解的可行性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Numerical Solution of the Partial Differential Equation using Randomly Generated Finite Grids and Two-Dimensional Fractional-Order Legendre Function
There are various methods to solve the physical life problem involving engineering, scientific and biological systems. It is found that numerical methods are approximate solutions. In this way, randomly generated finite difference grids achieve an approximation with fewer iterations. The idea of randomly generated grids in cartesian coordinates and polar form are compared with the exact, iterative method, uniform grids, and approximate solutions in a generalized expansion form of two-dimensional fractional-order Legendre functions. The most ideal and benchmarking method is the finite difference method over randomly generated grids on Cartesian coordinates, polar coordinates used for numerical solutions. This concept motivates the investigation of the effects of the randomly generated meshes. The two-dimensional equation is solved over randomly generated meshes to test randomly generated grids and the implementation. The feasibility of the numerical solution is analyzed by comparing simulation profiles.
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