Floer trajectories with immersed nodes and scale-dependent gluing
Yong-Geun Oh, Ke Zhu

TL;DR
This paper develops a refined compactification of Floer trajectories incorporating scale-dependent gluing techniques, enabling a detailed analysis of nodal degenerations and proving the isomorphism of the PSS map.
Contribution
It introduces an enhanced compactification framework for Floer trajectories with immersed nodes using adiabatic degeneration and scale-dependent gluing, extending previous methods.
Findings
Established a new compactification reflecting 1-jet data near nodal trajectories.
Proved the isomorphism property of the PSS map using the developed techniques.
Analyzed the gluing problem for zero-length gradient trajectories through renormalization.
Abstract
We define an enhanced compactification of Floer trajectories under Morse background using the adiabatic degeneration and the scale-dependent gluing techniques. The compactification reflects the 1-jet datum of the smooth Floer trajectories nearby the limiting nodal Floer trajectories arising from adiabatic degeneration of the background Morse function. This paper studies the gluing problem when the limiting gradient trajectories has length zero through a renomalization process. The case with limiting gradient trajectories of non-zero length will be treated elsewhere. An immediate application of our result is a proof of the isomorphism property of the PSS map : A proof of this isomorphism property was first outlined by P\"unihikin-Salamon-Schwarz \cite{PSS} in a way somewhat different from the current proof in its details. This kind of scale-dependent gluing techniques was initiated in…
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Taxonomy
TopicsGeometric and Algebraic Topology · Geometric Analysis and Curvature Flows · Homotopy and Cohomology in Algebraic Topology
