A Poincar\'e--Birkhoff theorem for $C^0$-Hamiltonian maps
Arthur Limoge, Agustin Moreno

TL;DR
This paper extends the Poincaré--Birkhoff theorem to higher dimensions using Floer homology, providing new tools for finding periodic orbits and Hamiltonian chords in complex dynamical systems.
Contribution
It introduces a higher-dimensional Poincaré--Birkhoff theorem via Floer homology and a relative version for Lagrangian submanifolds, advancing Hamiltonian dynamics theory.
Findings
Proves a higher-dimensional Poincaré--Birkhoff theorem using Floer homology.
Establishes a relative version for Lagrangian submanifolds.
Aims to find periodic orbits and Hamiltonian chords in the three-body problem.
Abstract
We prove a higher-dimensional version of the well-known Poincar\'e--Birkhoff theorem, using Floer homology. We also prove a relative version for Lagrangian submanifolds. The motivation is finding periodic orbits and Hamiltonian chords in the circular, restricted three-body problem.
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Taxonomy
TopicsGeometric and Algebraic Topology · Quantum chaos and dynamical systems · Control and Dynamics of Mobile Robots
