The structure of spider's web fast escaping sets
J.W. Osborne

TL;DR
This paper investigates the detailed topological and dynamical structure of spider's web fast escaping sets in certain transcendental entire functions, revealing their complex component types and orbit behaviors.
Contribution
It characterizes the topology and orbit structure of the components of the complement of these sets, including their quasiconformal equivalence to polynomial Julia sets.
Findings
Uncountably many components with various orbit types
Components with bounded orbits are quasiconformally equivalent to polynomial Julia sets
Singleton periodic components are dense in the Julia set
Abstract
Building on recent work by Rippon and Stallard, we explore the intricate structure of the spider's web fast escaping sets associated with certain transcendental entire functions. Our results are expressed in terms of the components of the complement of the set (the 'holes' in the web). We describe the topology of such components and give a characterisation of their possible orbits under iteration. We show that there are uncountably many components having each of a number of orbit types, and we prove that components with bounded orbits are quasiconformally homeomorphic to components of the filled Julia set of a polynomial. We also show that there are singleton periodic components and that these are dense in the Julia set.
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