Hamiltonian structures for general PDEs
Paul Kersten, Iosif Krasil'shchik, Alexander Verbovetsky, and Raffaele, Vitolo

TL;DR
This paper introduces a new geometric framework for constructing Hamiltonian operators applicable to a wide class of partial differential equations, demonstrated through classical examples like KdV and Camassa-Holm.
Contribution
It proposes a novel geometric approach to derive Hamiltonian structures for general PDEs, extending beyond traditional methods.
Findings
Framework successfully applied to KdV, Camassa-Holm, and Kupershmidt's deformation
Provides a systematic way to construct Hamiltonian operators for non-evolutionary PDEs
Enhances understanding of geometric structures underlying PDE Hamiltonian formulations
Abstract
We sketch out a new geometric framework to construct Hamiltonian operators for generic, non-evolutionary partial differential equations. Examples on how the formalism works are provided for the KdV equation, Camassa-Holm equation, and Kupershmidt's deformation of a bi-Hamiltonian system.
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