Every transformation is disjoint from almost every non-classical exchange
Jon Chaika, Vaibhav Gadre

TL;DR
This paper demonstrates that almost every non-classical interval exchange transformation is disjoint from every other, extending classical results to a broader class of dynamical systems related to quadratic differentials.
Contribution
It establishes disjointness properties for non-classical interval exchanges and their relation to quadratic differentials, generalizing classical interval exchange results.
Findings
Every transformation is disjoint from almost every irreducible non-classical interval exchange.
Almost every pair of quadratic differentials has disjoint vertical flows.
The results extend classical disjointness properties to non-classical interval exchanges.
Abstract
A natural generalization of interval exchange maps are linear involutions, first introduced by Danthony and Nogueira. Recurrent train tracks with a single switch which we call non-classical interval exchanges, form a subclass of linear involutions without flips. They are analogs of classical interval exchanges, and are first return maps for non-orientable measured foliations associated to quadratic differentials on Riemann surfaces. We show that every transformation is disjoint from almost every irreducible non-classical interval exchange. In the appendix, we prove that for almost every pair of quadratic differentials with respect to the Masur-Veech measure, the vertical flows are disjoint. In the appendix, we prove that for almost every pair of quadratic differentials with respect to the Masur-Veech measure, the vertical flows are disjoint.
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Taxonomy
TopicsMathematical Dynamics and Fractals · Advanced Differential Equations and Dynamical Systems · Quantum chaos and dynamical systems
