Coisotropic Intersections
By V. Ginzburg. 2006
61 citations recorded by the source corpus.
In this paper we make the first steps towards developing a theory of intersections of coisotropic submanifolds, similar to that for Lagrangian submanifolds. For coisotropic submanifolds satisfying a certain stability requirement we establish persistence of coisotropic intersections under Hamiltonian diffeomorphisms, akin to the Lagrangian intersection property. To be more specific, we prove that the displacement energy of a stable coisotropic submanifold is positive, provided that the ambient symplectic manifold meets some natural conditions. We also show that a displaceable, stable, coisotropic submanifold has non-zero Liouville class. This result further underlines the analogy between displacement properties of Lagrangian and coisotropic submanifolds.
Subfields: Applied Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/50ba24fc022f04ea789541b2b88bdf4ec83c81bc
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In Applied Mathematics
In Geometry and Topology
- Basak Z. Gurel
- V. Ginzburg
- Sobhan Seyfaddini
- Vincent Humilière
- Michael Usher
- R. Leclercq
- E. Shelukhin
- A. Kislev
Citations in the corpus
- Action and index spectra and periodic orbits in Hamiltonian dynamics (2008, methodology): “) This point of view, taken in, eg, [22; 26; 29], enables one to relax the compactness requirement on M in the construction of the filtered Floer homology.”
- Leaf-wise intersections and Rabinowitz Floer homology (2008, unknown): “Among other results Ginzburg [Gin07] generalized from restricted contact type in R 2 n to restricted contact type in subcritical Stein manifolds.”
- Boundary depth in Floer theory and its applications to Hamiltonian dynamics and coisotropic submanifolds (2009, background): “4 of [13], the requirement of stability is a rather restrictive one to impose, especially when k is not small.”
- Coisotropic rigidity and $C^{0}$-symplectic geometry (2013, background): “For example, in [7] Ginzburg initiated a program for studying rigidity of coisotropic intersections.”
- The Conley Conjecture (2006, background): “b) ∗ (Ki+1). To this end, let us first prove that ΨKi,Ki+1([p]) 6= 0. We may assume that neither of the points a, a+ǫ, b, b+ǫis in S(Ki) or in S(Ki+1). 10 VIKTOR GINZBURG It is easy to see (see, e.g., [Gi]) that ΨKi+1,Ki ◦ΨKi,Ki+1 : HF (a,b) ∗ (K i) → HF(a+ǫ,b+ǫ) ∗ (K i) (2.6) is the natural “quotien”