Construction of a linear K-system in Hamiltonian Floer theory
Kenji Fukaya, Yong-Geun Oh, Hiroshi Ohta, Kaoru Ono

TL;DR
This paper constructs a geometric model called a linear K-system for Hamiltonian Floer theory, enabling the definition of Floer cohomology on general symplectic manifolds and establishing an isomorphism with singular cohomology.
Contribution
It provides a geometric realization of the linear K-system in the Morse-Bott setting, facilitating Floer cohomology construction without restrictions.
Findings
Construction of Floer cohomology for general compact symplectic manifolds.
Establishment of an isomorphism between Floer cohomology and singular cohomology.
Development of a detailed inductive procedure for constructing linear K-systems.
Abstract
The notion of linear K-system is introduced by the present authors as an abstract model arising from the structure of compactified moduli spaces of solutions to Floer's equation in the book [FOOO14]. The purpose of the present article is to provide a geometric realization of the linear K-system associated with solutions to Floer's equation in the Morse-Bott setting. Immediate consequences (when combined with the abstract theory from [FOOO14]) are construction of Floer cohomology for periodic Hamiltonian system on general compact symplectic manifold without any restriction, and construction of an isomorphism over the Novikov ring between the Floer cohomology and the singular cohomology of the underlying symplectic manifold. The present article utilizes various analytical results on pseudo-holomorphic curves established in our earlier papers and books. However the paper itself is…
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Taxonomy
TopicsGeometric and Algebraic Topology · Algebraic Geometry and Number Theory · Mathematical Dynamics and Fractals
