Stable specific torsion length and periodic mapping classes
Elizabeth Field, Yvon Verberne

TL;DR
This paper investigates properties of periodic mapping classes, introducing the stable specific torsion length concept and establishing bounds for Dehn twists, advancing understanding of their algebraic and geometric structure.
Contribution
It introduces the stable specific torsion length for group elements and proves an upper bound for Dehn twists, linking geometric actions to algebraic invariants.
Findings
Existence of a power of any periodic mapping class that maps a nonseparating curve to a disjoint one
Definition of stable specific torsion length for group elements
Bound of six for the stable specific torsion length of a Dehn twist
Abstract
We show that for any periodic mapping class, there is some power which maps a nonseparating, simple closed curve to a distinct, disjoint nonseparating curve. As an application of this result, we introduce the notion of stable specific torsion length of a group element and show that the stable specific torsion length of a Dehn twist is bounded above by six.
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Taxonomy
TopicsGeometric and Algebraic Topology · Mathematical Dynamics and Fractals · Algebraic Geometry and Number Theory
