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Multi-dark soliton solutions of the two-dimensional multi-component Yajima-Oikawa systems

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arxiv 1502.02759 v2 pith:O2VRVUVE submitted 2015-02-10 nlin.SI

Multi-dark soliton solutions of the two-dimensional multi-component Yajima-Oikawa systems

classification nlin.SI
keywords solitondark-darkmulti-componentsystemsboundcoupledgeneralmulti-dark
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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abstract

We present a general form of multi-dark soliton solutions of two-dimensional multi-component soliton systems. Multi-dark soliton solutions of the two-dimensional (2D) and one-dimensional (1D) multi-component Yajima-Oikawa (YO) systems, which are often called the 2D and 1D multi-component long wave-short wave resonance interaction systems, are studied in detail. Taking the 2D coupled YO system with two short wave and one long wave components as an example, we derive the general $N$-dark-dark soliton solution in both the Gram type and Wronski type determinant forms for the 2D coupled YO system via the KP hierarchy reduction method. By imposing certain constraint conditions, the general $N$-dark-dark soliton solution of the 1D coupled YO system is further obtained. The dynamics of one dark-dark and two dark-dark solitons are analyzed in detail. In contrast with bright-bright soliton collisions, it is shown that dark-dark soliton collisions are elastic and there is no energy exchange among solitons in different components. Moreover, the dark-dark soliton bound states including the stationary and moving ones are discussed. For the stationary case, the bound states exist up to arbitrary order, whereas, for the moving case, only the two-soliton bound state is possible under the condition that the coefficients of nonlinear terms have opposite signs.

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