Floer homology, symplectic and complex hyperbolicities
Anne-Laure Biolley
Abstract
On one side, from the properties of Floer cohomology, invariant associated to a symplectic manifold, we define and study a notion of symplectic hyperbolicity and a symplectic capacity measuring it. On the other side, the usual notions of complex hyperbolicity can be straightforwardly generalized to the case of almost-complex manifolds by using pseudo-holomorphic curves. That's why we study the links between these two notions of hyperbolicities when a manifold is provided with some compatible symplectic and almost-complex structures. We mainly explain how the non-symplectic hyperbolicity implies the existence of pseudo-holomorphic curves, and so the non-complex hyperbolicity. Thanks to this analysis, we could both better understand the Floer cohomology and get new results on almost-complex hyperbolicity. We notably prove results of stability for non-complex hyperbolicity under deformation of the almost-complex structure among the set of the almost-complex structures compatible with a fixed non-hyperbolic symplectic structure, thus generalizing Bangert theorem that gave this same result in the special case of the standard torus.
Create a lesson
Related papers
On some rigidity results for high-dimensional confoliations
Fabio Gironella, Seungook Yu
Holomorphic approximation for Hamiltonian diffeomorphism groups via the Symplectic Density Property
Gaofeng Huang, Frank Kutzschebauch
Open WDVV equations for non-commutative families of bounding cochains
Elad Kosloff
Invariant sets and spectral rigidity of Hamiltonian diffeomorphisms
Habib Alizadeh, Egor Shelukhin
Kuranishi spaces in a category of fibrant objects and their homotopy fiber products
Taesu Kim
Bi-contact plugs and dynamical hyperbolicity
Surena Hozoori