M. Ashik Iqbal, M. Mamun Miah, Md Mamunur Rasid, Hashim M. Alshehri, M. S. Osman
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引用次数: 3
摘要
非线性偏微分方程(NLPDEs)广泛应用于工程和物理研究中,以表示自然发生的许多物理过程。本文首次利用(G ' G ' +G+ a)-展开方法,研究了(2 + 1)维第一次积分-微分KP层次方程和(2 + 1)维第二次积分-微分KP层次方程这两个已知的NLPDEs。该算法一般基于函数展开法,具有易于实现的优点,可以为任意nlpde提供可靠的解。利用该算法,我们已经能够感知到所选择的两个nlpde的封闭形式孤子,它们在物理上代表孤波解,如奇异,奇异周期,钟形和反钟形孤子类型。此外,我们还探讨了所得到的上述孤子类型解的图形表示形式。从我们深入研究的结果可以看出,所选两个方程的解可以极大地帮助提取数学物理中相关的自然现象,如流体力学和海洋工程。
An investigation of two integro-differential KP hierarchy equations to find out closed form solitons in mathematical physics
Nonlinear partial differential equations (NLPDEs) are widely utilized in engineering and physical research to represent many physical processes of naturalistic occurrences. In this paper, we investigate two well-known NLPDEs, namely, the (2 + 1)-dimensional first integro-differential KP hierarchy equation and the (2 + 1)-dimensional second integro-differential KP hierarchy equation, through a well-stable algorithm known as the (G′G′+G+A)-expansion approach for the first time. This algorithm is generally based on the expansion of function method and has the advantage of easy implementation and can provide a reliable solution to any NLPDEs. Employing the algorithm, we have been able to perceive the closed form solitons of the two chosen NLPDEs that physically represent the solitary wave solutions like, singular, singular periodic, bell, and anti-bell-shaped types of solitons. Furthermore, we explore the graphical manifestations of the obtained solutions, which are of the mentioned soliton types. From the findings of our in-depth study, we can state that the acquired solutions for the selected two equations may greatly aid to extracting the associated natural phenomena in mathematical physics such as fluid dynamics and ocean engineering.