1979
DOI: 10.1063/1.862457
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Algebraic internal wave solitons and the integrable Calogero–Moser–Sutherland N-body problem

Abstract: The Benjamin–Ono equation that describes nonlinear internal waves in a stratified fluid is solved by a pole expansion method. The dynamics of poles which characterize solitons is shown to be identical to the well-known integrable N-body problem of Calogero, Moser, and Sutherland.

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Cited by 98 publications
(72 citation statements)
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“…The latter is a minor generalization of the conventional Benjamin-Ono equation (BO) arising in the hydrodynamics of stratified fluids [7]. A connection of the traditional BO to a complexified version of a classical Calogero model is known [8]. A pair of coupled classical BO-type equations has been obtained by A. Jevicki for a long-wave description of free fermions (λ = 1) [4].…”
mentioning
confidence: 99%
“…The latter is a minor generalization of the conventional Benjamin-Ono equation (BO) arising in the hydrodynamics of stratified fluids [7]. A connection of the traditional BO to a complexified version of a classical Calogero model is known [8]. A pair of coupled classical BO-type equations has been obtained by A. Jevicki for a long-wave description of free fermions (λ = 1) [4].…”
mentioning
confidence: 99%
“…The contribution of this image to the b velocity parallels the interaction of a b and a = b * pair in the original real-valued Benjamin-Ono equation studied in [15]-the only difference being that in the present case we must include inḃ the constant velocity v sound = λπρ 0 induced by the uniform ρ 0 background. The condition thatȧ(0) be real is a linear equation linking the b-pole contribution to the density fluctuation δρ = (ρ − ρ 0 ).…”
Section: Shepherd Poles and Calogero Density-wave Solitonsmentioning
confidence: 81%
“…This Hamiltonian system possesses infinitely many Poisson-commuting integrals of motion [14]. Following [15], we seek solutions of (1) as a sum of poles…”
Section: Calogero-sutherland From the Benjamin-ono Pole Ansatzmentioning
confidence: 99%
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“…Thus, assuming θ ε has been constructed from the constraints (i)-(v), we may obtain θ ε by solving the equations 35) involving the standard inner product. This means (θ ε ) −1 α i = (θ ε α) i .…”
Section: (C) Deformed Calogero-moser-sutherland Modelsmentioning
confidence: 99%