2020
DOI: 10.1155/2020/3407676
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Multiple Lump Solutions of the (4+1)-Dimensional Fokas Equation

Abstract: In this paper, we investigate multiple lump wave solutions of the new (4+1)-dimensional Fokas equation by adopting a symbolic computation method. We get its 1-lump solutions, 3-lump solutions, and 6-lump solutions by using its bilinear form. Moreover, some basic characters and structural features of multiple lump waves are explained by depicting the three-dimensional plots.

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Cited by 13 publications
(8 citation statements)
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“…Recently, Clarkson and Dowie solves the (1+1)-dimensional Boussinesq equation using the considered approach [44], also it is reported recently that the zeros of these polynomials have interesting patterns and the integral of the solutions representations are also well behaved [44,52]. The considered approach is further extended to higher dimensional soliton equation in (2+1)-D, (3+1)-D, (4+1)-D, and its nonlocal Alice Bob equivalent models [45,53,54,55]. In [55], it was predicted that the method is applicable for soliton equation whose bilinear form is free from mixed Hirota D-operators, but recently this approach is used for nonlinear models whose consist of mixed Hirota D-operators [56].…”
Section: Methodology To Construct Higher-order Rogue Wave Solutionsmentioning
confidence: 99%
“…Recently, Clarkson and Dowie solves the (1+1)-dimensional Boussinesq equation using the considered approach [44], also it is reported recently that the zeros of these polynomials have interesting patterns and the integral of the solutions representations are also well behaved [44,52]. The considered approach is further extended to higher dimensional soliton equation in (2+1)-D, (3+1)-D, (4+1)-D, and its nonlocal Alice Bob equivalent models [45,53,54,55]. In [55], it was predicted that the method is applicable for soliton equation whose bilinear form is free from mixed Hirota D-operators, but recently this approach is used for nonlinear models whose consist of mixed Hirota D-operators [56].…”
Section: Methodology To Construct Higher-order Rogue Wave Solutionsmentioning
confidence: 99%
“…The explict solutions of nonlinear PDE play an important role in nonlinear science and engineering, and there are many kinds of effective methods that have been established to construct explict solutions for nonlinear equations, such as symmetry reductions [30,31], bilinear method [41][42][43], Darboux transformation [44], and Painlevé analysis [45], but most of them are more difficult to find interaction solutions which are an important and meaningful research topic [46][47][48]. Fortunately, the above consistent tanh expansion (CTE) method can be easily applied to investigate interaction solutions between a soliton and any other types of nonlinear excitations.…”
Section: Explict Solution To the Higher-order Broer-kaup Systemmentioning
confidence: 99%
“…where a 3 a 6 ̸ = 0. Therefore, by comparing equation ( 6) and limiting conditions (10), we can write a type of quadratic function solutions of equation ( 5) Then, substituting quadratic function (11) into transformation (4), we can obtain…”
Section: Lump Solution Of Equationmentioning
confidence: 99%