The N-soliton solution of a generalised Vakhnenko equation is found, where N is an arbitrary positive integer. The solution, which is obtained by using a blend of transformations of the independent variables and Hirota's method, is expressed in terms of a Moloney and Hodnett (1989) type decomposition. Different types of soliton are possible, namely loops, humps or cusps. Details of the different types of interactions between solitons, including resonant soliton interactions, are discussed in detail for the case N=2. A proof of the 'N-soliton condition' is given in the Appendix
It is shown that the N-loop soliton solution to the short-pulse equation may be decomposed exactly i...
We formulate the N soliton solution of the Wadati–Konno–Ichikawa equation that is determined by pure...
A direct rational exponential scheme is introduced and applied to construct exact multisoliton solut...
The N-soliton solution of a generalised Vakhnenko equation is found, where N is an arbitrary positiv...
The N-soliton solution of a new nonlinear evolution equation, the modified generalised Vakhnenko equ...
A Bäcklund transformation both in bilinear form and in ordinary form for the transformed Vakhnenko e...
A variety of methods for examining the properties and solutions of nonlinear evolution equations are...
A variety of methods for examining the properties and solutions of nonlinear evolution equations are...
A Bäcklund transformation both in bilinear and in ordinary form for the transformed generalised Vakh...
The Exp-function method is generalized to construct N-soliton solutions of a new generalization of t...
Abstract. We construct the N-solitons solution in the Novikov–Veselov equation from the extended Mou...
AbstractIn this paper, the Exp-function method is generalized to construct N-soliton solutions of th...
Abstract. To predict the wave parameters from the inter-action patterns of waves (the inverse proble...
AbstractA systematic approach to soliton interaction is presented in terms of a particular class of ...
With the aid of the binary Hirota polynomial scheme, the bilinear form of the generalized (3 + 1)-di...
It is shown that the N-loop soliton solution to the short-pulse equation may be decomposed exactly i...
We formulate the N soliton solution of the Wadati–Konno–Ichikawa equation that is determined by pure...
A direct rational exponential scheme is introduced and applied to construct exact multisoliton solut...
The N-soliton solution of a generalised Vakhnenko equation is found, where N is an arbitrary positiv...
The N-soliton solution of a new nonlinear evolution equation, the modified generalised Vakhnenko equ...
A Bäcklund transformation both in bilinear form and in ordinary form for the transformed Vakhnenko e...
A variety of methods for examining the properties and solutions of nonlinear evolution equations are...
A variety of methods for examining the properties and solutions of nonlinear evolution equations are...
A Bäcklund transformation both in bilinear and in ordinary form for the transformed generalised Vakh...
The Exp-function method is generalized to construct N-soliton solutions of a new generalization of t...
Abstract. We construct the N-solitons solution in the Novikov–Veselov equation from the extended Mou...
AbstractIn this paper, the Exp-function method is generalized to construct N-soliton solutions of th...
Abstract. To predict the wave parameters from the inter-action patterns of waves (the inverse proble...
AbstractA systematic approach to soliton interaction is presented in terms of a particular class of ...
With the aid of the binary Hirota polynomial scheme, the bilinear form of the generalized (3 + 1)-di...
It is shown that the N-loop soliton solution to the short-pulse equation may be decomposed exactly i...
We formulate the N soliton solution of the Wadati–Konno–Ichikawa equation that is determined by pure...
A direct rational exponential scheme is introduced and applied to construct exact multisoliton solut...