“…Finding their exact solutions has extensive applications in many scientific fields such as hydrodynamics, condensed matter physics, solid-state physics, nonlinear optics, neurodynamics, crystal dislocation, model of meteorology, water wave model of oceanography, and fibre-optic communication. The research methods for solving nonlinear PDEs deal with the inverse scattering transformation [1,2], the Darboux transformation [3][4][5], the Bäcklund transformation [5][6][7][8], the bilinear method and multilinear method [9,10], the classical and nonclassical Lie group approaches [11,12], the Clarkson-Kruskal direct method [13][14][15], the mixing exponential method [16], the geometrical method [17,18], the truncated Painlev́expansion [19,20], the function expansion method (including tanh expansion method [21,22], sine-cosine expansion method [23,24], exp-function method [25], and multiple exp-function method [26]), the bifurcation theory of planar dynamical system [27,28], the F-expansion type method [29,30], / method [31,32], and the integral bifurcation method [33][34][35][36]. Among these available methods for solving nonlinear PDEs, some of them employed Frobenius' idea directly or indirectly.…”