2007
DOI: 10.1007/s11232-007-0084-2
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A hierarchy of integrable partial differential equations in 2+1 dimensions associated with one-parameter families of one-dimensional vector fields

Abstract: We introduce a hierarchy of integrable partial differential equations in 2+1 dimensions arising from the commutation of one-para,meter families of vector fields, and we construct the lormal solution of the associated Cauchy problems using the inverse scattering method for one-parameter families of vector fields. Because the space of eigenfunctions is a ring, the inverse problem can be formulated in three distinct ways. In particular, one formulation corresponds to a linear integral equation for a Jost eigenfun… Show more

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Cited by 63 publications
(106 citation statements)
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“…The Cauchy problem for the v = 0 reduction of (1), the dKP equation, was also presented in [24], while the Cauchy problem for the u = 0 reduction of (1), an integrable system introduced in [16], was given in [25]. This IST and its associated nonlinear Riemann-Hilbert (RH) dressing turn out to be efficient tools to study several properties of the solution space, such as (i) the characterization of a distinguished class of spectral data for which the associated nonlinear RH problem is linearized and solved, corresponding to a class of implicit solutions of the PDE (as it was done for the dKP equation in [26] and for the Dunajski generalization [27] of the second heavenly equation in [28]); (ii) the construction of the longtime behaviour of the solutions of the Cauchy problem [26]; (iii) the possibility to establish whether or not the lack of dispersive terms in the nonlinear PDE causes the breaking of localized initial profiles and, if yes, to investigate in a surprisingly explicit way the analytic aspects of such a wave breaking (as it was recently done for the (2+1)-dimensional dKP model in [26]).…”
Section: Introductionmentioning
confidence: 99%
“…The Cauchy problem for the v = 0 reduction of (1), the dKP equation, was also presented in [24], while the Cauchy problem for the u = 0 reduction of (1), an integrable system introduced in [16], was given in [25]. This IST and its associated nonlinear Riemann-Hilbert (RH) dressing turn out to be efficient tools to study several properties of the solution space, such as (i) the characterization of a distinguished class of spectral data for which the associated nonlinear RH problem is linearized and solved, corresponding to a class of implicit solutions of the PDE (as it was done for the dKP equation in [26] and for the Dunajski generalization [27] of the second heavenly equation in [28]); (ii) the construction of the longtime behaviour of the solutions of the Cauchy problem [26]; (iii) the possibility to establish whether or not the lack of dispersive terms in the nonlinear PDE causes the breaking of localized initial profiles and, if yes, to investigate in a surprisingly explicit way the analytic aspects of such a wave breaking (as it was recently done for the (2+1)-dimensional dKP model in [26]).…”
Section: Introductionmentioning
confidence: 99%
“…A simplest case of general hierarchy (4) with N = 1 is connected with the system recently introduced by Manakov and Santini [3]. For this hierarchy we have two series…”
Section: Manakov-santini Hierarchymentioning
confidence: 99%
“…The problem (19) is connected with a class of integrable equations, which can be represented as a commutation relation for vector fields containing a derivative on the spectral variable. We give a sketch of the dressing scheme corresponding to the general (N+2)-dimensional integrable hierarchy (3), (4). First, we chose γ as a unit circle.…”
Section: Dressing Schemementioning
confidence: 99%
“…As we deal with the restricted Lax operators (29) and (30), the images of the Poisson tensors (24) do not have to span proper subspace of w, i.e., the images of (24) do not have to lie in the space spanned by l t ν q,k .…”
Section: Finite-field Lax Operatorsmentioning
confidence: 99%