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arXiv · 2111.13335

Flows with time-reversal symmetric limit sets on surfaces

Tomoo Yokoyama
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Abstract

The Long-time behavior of orbits is one of the most fundamental properties in dynamical systems. Poincar\'e studied the Poisson stability, which satisfies a time-reversal symmetric condition, to capture the property of whether points return arbitrarily near the initial positions after a sufficiently long time. Birkhoff introduced and studied the concept of non-wandering points, which is one of the time-reversal symmetric conditions. Moreover, minimality and pointwise periodicity satisfy the time-reversal symmetric condition for limit sets. This paper characterizes flows with the time-reversal symmetric condition for limit sets, which refine the characterization of irrational or Denjoy flows by Athanassopoulos. Using the description, we construct flows on a sphere with Lakes of Wada attractors and with an arbitrarily large number of complementary domains, which are flow versions of such examples of spherical homeomorphisms constructed by Boro\'{n}ski, \v{C}in\v{c}, and Liu.

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Tomoo Yokoyama. 2021-11-26. Flows with time-reversal symmetric limit sets on surfaces. https://arxiv.org/abs/2111.13335

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