SearcharxivSearch

arXiv · 2006.03904

Note on the classification of the orientation reversing homeomorphisms of finite order of surfaces

Abstract

The aim of this note is to stablish the topological classification of finite period orientation reversing autohomeomorphims of a closed oriented surface when the period is 2q, with q even. The classification of periodic orientation reversing autohomeomorphims of a closed oriented surface has been made by Kazuo Yokoyama in Complete classification of periodic maps on compact surfaces, Tokyo J. Math. 15 (1992), no. 2, 247--279, and by the author in Classification of the orientation reversing homeomorphisms of finite order of surfaces, Topology and its applications 62 (1995) 145--162 (reference [1] of this paper) following different approaches. In [1] there are some errors for the case considered in this note: orientation reversing homeomorphims of period multiple of 4. The errors have been pointed out by Weibiao Wang of the School of Mathematical Sciences of Peking University and Chao Wang of the School of Mathematical Sciences of East China Normal University in Shanghai. The approach to this problem in [1] is useful and in Section 3 we obtain the classification for the case when the orientation reversing homemorphism has period multiple of 4 following the ideas of [1]. The results in [1] has been used in references [2] and [3]. The last Section include the corrections to these articles following Section 3.

Explore related subjects

Keep this discovery

BibTeXRIS

Antonio F. Costa. 2020-06-06. Note on the classification of the orientation reversing homeomorphisms of finite order of surfaces. https://arxiv.org/abs/2006.03904

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related papers

Bar cohomology of links: beyond Milnor invariants

We develop bar cohomology of link complements as an invariant of links in homology spheres. In this setting, bar cohomology is a Hopf algebra which is calculable using surfaces and their intersection curves in a link complement. In this first in a sequence of works, we introduce the invariant and show that it defines a canonical subspace of the tensor Hopf algebra, which already encodes information about Milnor's link invariants and provides geometrically significant information beyond them.

math.GT

Homological lifts of Arnold invariants $J^-$ and $J^+$

Viro's Euler-integral polynomial $P_C(q)$ and the Lanzat--Polyak quantized-curvature polynomial $I_q(C)$ refine Arnold's invariants $J^-$ and $J^+$ for generic immersed one-component plane curves. We construct homological lifts of both. The bigraded region homology retains the singular homology of every connected Alexander-index region; its graded Euler characteristic is $P_C(q)$. The triply graded smoothing-circle homology is generated by the oriented circles of the orientation-preserving smoothing and decategorifies to the smoothing term in $I_q(C)$. Keeping the actual region summands and the boundary regions of every smoothing circle gives a homological refinement of the oriented smoothing configuration, or Seifert state. An infinite family proves strictness: both polynomial data and the ordinary homological lifts agree, while the component-graded region homology and the branch-decomposed circle homology distinguish every pair. Further constructions recover the full $I_q(C)$ by a vertex complex, realize the local change of its curvature integral by edge homology, and give a canonical two-state homology for unoriented curves. Viro described his Euler-integral formula as an analogue of face state-sum formulas for quantum knot polynomials. Through the categorifications developed here, we obtain one concrete homological face-state-sum model realizing that analogy.

math.GT