Floer sections in multisymplectic geometry

Fuente: arXiv
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Autori principali: Brilleslijper, Ronen, Fabert, Oliver
Natura: Preprint
Pubblicazione: 2025
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author Brilleslijper, Ronen
Fabert, Oliver
author_facet Brilleslijper, Ronen
Fabert, Oliver
contents In symplectic geometry, Floer theory is the most important tool to prove the existence of time-periodic solutions in Hamiltonian mechanics. The core observation is that the $L^2$-gradient lines of the symplectic action functional are pseudo-holomorphic curves, enabling the use of elliptic PDE methods. Multisymplectic geometry is the geometric framework underlying Hamiltonian field theory, where the time line is replaced by higher-dimensional manifolds. In the case of two dimensions and using complex structures, we introduce a novel multisymplectic framework that is fit for the generalization of the elliptic methods from symplectic geometry. Besides proving a Darboux theorem, we show that the $L^2$-gradient lines of our multisymplectic action functional are now pseudo-Fueter curves defined using a compatible almost hyperkähler structure.
format Preprint
id arxiv_https___arxiv_org_abs_2512_05797
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Floer sections in multisymplectic geometry
Brilleslijper, Ronen
Fabert, Oliver
Symplectic Geometry
Mathematical Physics
Differential Geometry
35J60, 37J39, 53D40, 53Z05, 70S20
In symplectic geometry, Floer theory is the most important tool to prove the existence of time-periodic solutions in Hamiltonian mechanics. The core observation is that the $L^2$-gradient lines of the symplectic action functional are pseudo-holomorphic curves, enabling the use of elliptic PDE methods. Multisymplectic geometry is the geometric framework underlying Hamiltonian field theory, where the time line is replaced by higher-dimensional manifolds. In the case of two dimensions and using complex structures, we introduce a novel multisymplectic framework that is fit for the generalization of the elliptic methods from symplectic geometry. Besides proving a Darboux theorem, we show that the $L^2$-gradient lines of our multisymplectic action functional are now pseudo-Fueter curves defined using a compatible almost hyperkähler structure.
title Floer sections in multisymplectic geometry
topic Symplectic Geometry
Mathematical Physics
Differential Geometry
35J60, 37J39, 53D40, 53Z05, 70S20
url https://arxiv.org/abs/2512.05797