Analytical solutions of the space–time fractional Kundu–Eckhaus equation by using modified extended direct algebraic method

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Abstract

The study of soliton solutions for Nonlinear Fractional Partial Differential Equations (NFPDEs) has gained prominence recently because of its ability to realistically recreate complex physical processes. Numerous mathematical techniques have been devised to handle the problem of NFPDEs where soliton solutions are difficult to obtain. Due to their accuracy in reproducing complex physical phenomena, soliton solutions for Nonlinear Fractional Partial Differential Equations (NFPDEs) have recently attracted interest. Several mathematical techniques have been devised to tackle the difficult task of solving non-finite partial differential equations (NFPDEs) soliton. Studies of soliton solutions for Nonlinear Fractional Partial Differential Equations (NFPDEs) have garnered increased attention recently due to its capacity to accurately represent complex physical processes. Due to the difficulty of obtaining soliton solutions, NFPDEs can be solved using a wide variety of mathematical methods. In this way, it facilitates the extraction of the recently found abundance of optical soliton solutions. To further understanding of the results, the study also includes contour and three-dimensional images that visually depict particular optical soliton solutions for particular parameter selections, suggesting the existence of different soliton structures in the nonlinear fractional Kundu–Eckhaus equation (NFKEE) region. It is shown that the proposed technique is quite powerful and effective in solving several nonlinear FDEs.

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用修正的扩展直接代数法分析解决时空分数昆杜-埃克豪斯方程
非线性分数偏微分方程(NFPDEs)的孤子解研究因其能够真实地再现复杂的物理过程而在近来备受瞩目。针对难以获得孤子解的非线性分微分方程问题,人们设计了许多数学技术。由于非线性分式偏微分方程(NFPDE)的孤子解能够准确再现复杂的物理现象,因此最近引起了人们的兴趣。为了解决非有限偏微分方程(NFPDEs)孤子求解的难题,人们设计了多种数学技术。由于非线性分式偏微分方程(NFPDEs)能准确地表示复杂的物理过程,对其孤子解的研究近来受到越来越多的关注。由于难以获得孤子解,NFPDE 可采用多种数学方法求解。因此,它有助于提取最近发现的大量光学孤子解。为了进一步理解研究结果,研究还包括等高线和三维图像,直观地描述了特定参数选择下的特定光学孤子解,表明在非线性分数昆杜-埃克豪斯方程(NFKEE)区域存在不同的孤子结构。结果表明,所提出的技术在求解若干非线性 FDE 时相当强大和有效。
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来源期刊
CiteScore
6.20
自引率
0.00%
发文量
138
审稿时长
14 weeks
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