
TL;DR
This paper extends previous results on slow escaping points in transcendental entire functions, demonstrating their existence within specific types of tracts and providing illustrative examples.
Contribution
It introduces new covering techniques to prove slow escape points exist in logarithmic and boundary-specific tracts, expanding prior work.
Findings
Existence of slow escaping points in logarithmic tracts
Existence of slow escaping points in tracts with certain boundary properties
Examples illustrating the theoretical results
Abstract
Let be a transcendental entire function. By a result of Rippon and Stallard, there exist points whose orbit escapes arbitrarily slowly. By using a range of techniques to prove new covering results, we extend their theorem to prove the existence of points which escape arbitrarily slowly within logarithmic tracts and tracts with certain boundary properties. We then give examples to illustrate our results in a variety of tracts.
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Taxonomy
TopicsMeromorphic and Entire Functions · Mathematical Dynamics and Fractals · Advanced Differential Equations and Dynamical Systems
