An $h$-principle for embeddings transverse to a contact structure
Robert Cardona, Francisco Presas

TL;DR
This paper establishes an $h$-principle for embeddings transverse to contact structures, providing new flexibility results and applications in contact and symplectic geometry, including Hamiltonian dynamics.
Contribution
It introduces a sufficient condition called isocontact realization for the $h$-principle and applies it to embeddings transverse to contact structures, with new cases of full $h$-principle.
Findings
Embeddings transverse to contact structures satisfy a full $h$-principle under certain conditions.
The framework applies to classical results and new applications in symplectic and contact geometry.
Demonstrates universality of Hamiltonian dynamics on level sets via embeddings.
Abstract
Given a class of embeddings into a contact or a symplectic manifold, we give a sufficient condition, that we call isocontact or isosymplectic realization, for this class to satisfy a general -principle. The flexibility follows from the -principles for isocontact and isosymplectic embeddings, it provides a framework for classical results, and we give two new applications. Our main result is that embeddings transverse to a contact structure satisfy a full -principle in two cases: if the complement of the embedding is overtwisted, or when the intersection of the image of the formal derivative with the contact structure is strictly contained in a proper symplectic subbundle. We illustrate the general framework on symplectic manifolds by studying the universality of Hamiltonian dynamics on regular level sets via a class of embeddings.
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Taxonomy
TopicsGeometric and Algebraic Topology · Homotopy and Cohomology in Algebraic Topology · Geometry and complex manifolds
