Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds

Our work builds on that of Barbot and Fenley to generalize Bonatti and Langevin's famous construction of a graph manifold with pseudo-Anosov flow in which all Seiftert fibered pieces of the torus decomposition are periodic. We provide infinitely many new examples of such graph manifolds, as wel...

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Other Authors: Waller, Russell L. (authoraut)
Format: Others
Language:English
English
Published: Florida State University
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Online Access:http://purl.flvc.org/fsu/fd/FSU_migr_etd-9479
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spelling ndltd-fsu.edu-oai-fsu.digital.flvc.org-fsu_2530572020-06-18T03:07:56Z Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds Waller, Russell L. (authoraut) Fenley, Sérgio Roberto (professor directing dissertation) Reina, Laura (university representative) Hironaka, Eriko (committee member) Heil, Wolfgang H. (committee member) Mio, Washington (committee member) Florida State University (degree granting institution) College of Arts and Sciences (degree granting college) Department of Mathematics (degree granting department) Text text Florida State University Florida State University English eng 1 online resource (79 pages) computer application/pdf Our work builds on that of Barbot and Fenley to generalize Bonatti and Langevin's famous construction of a graph manifold with pseudo-Anosov flow in which all Seiftert fibered pieces of the torus decomposition are periodic. We provide infinitely many new examples of such graph manifolds, as well as a complete classification -- up to Seifert invariant -- in the case that each Seiftert fibered piece is orientable and the flow is Anosov. We further demonstrate that the singularities of the flow are not rigid but can rather be "rearranged", or even removed, without affecting the ambient manifold. To build our graph manifolds and model the pseudo-Anosov flows that they support, we define and construct combinatorial objects known as flow graphs. We study these flow graphs and the surfaces, called fat graphs (or ribbon graphs), that retract onto them. In particular, we study flow graphs with the additional conditions needed to generate pseudo-Anosov flows from the combinatorial data that the flow graphs provide, and classify the surfaces that admit flow graphs with these additional requirements. A Dissertation submitted to the Department of Mathematics in partial fulfillment of the requirements for the degree of Doctor of Philosophy. Spring Semester, 2015. March 18, 2015. fat graph, graph manifold, pseudo-Anosov flow, ribbon graph Includes bibliographical references. Sergio Fenley, Professor Directing Dissertation; Laura Reina, University Representative; Eriko Hironaka, Committee Member; Wolfgang Heil, Committee Member; Washington Mio, Committee Member. Mathematics FSU_migr_etd-9479 http://purl.flvc.org/fsu/fd/FSU_migr_etd-9479 This Item is protected by copyright and/or related rights. You are free to use this Item in any way that is permitted by the copyright and related rights legislation that applies to your use. For other uses you need to obtain permission from the rights-holder(s). The copyright in theses and dissertations completed at Florida State University is held by the students who author them. http://diginole.lib.fsu.edu/islandora/object/fsu%3A253057/datastream/TN/view/Periodic%20Pieces%20of%20Pseudo-Anosov%20Flows%20in%20Graph%20Manifolds.jpg
collection NDLTD
language English
English
format Others
sources NDLTD
topic Mathematics
spellingShingle Mathematics
Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds
description Our work builds on that of Barbot and Fenley to generalize Bonatti and Langevin's famous construction of a graph manifold with pseudo-Anosov flow in which all Seiftert fibered pieces of the torus decomposition are periodic. We provide infinitely many new examples of such graph manifolds, as well as a complete classification -- up to Seifert invariant -- in the case that each Seiftert fibered piece is orientable and the flow is Anosov. We further demonstrate that the singularities of the flow are not rigid but can rather be "rearranged", or even removed, without affecting the ambient manifold. To build our graph manifolds and model the pseudo-Anosov flows that they support, we define and construct combinatorial objects known as flow graphs. We study these flow graphs and the surfaces, called fat graphs (or ribbon graphs), that retract onto them. In particular, we study flow graphs with the additional conditions needed to generate pseudo-Anosov flows from the combinatorial data that the flow graphs provide, and classify the surfaces that admit flow graphs with these additional requirements. === A Dissertation submitted to the Department of Mathematics in partial fulfillment of the requirements for the degree of Doctor of Philosophy. === Spring Semester, 2015. === March 18, 2015. === fat graph, graph manifold, pseudo-Anosov flow, ribbon graph === Includes bibliographical references. === Sergio Fenley, Professor Directing Dissertation; Laura Reina, University Representative; Eriko Hironaka, Committee Member; Wolfgang Heil, Committee Member; Washington Mio, Committee Member.
author2 Waller, Russell L. (authoraut)
author_facet Waller, Russell L. (authoraut)
title Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds
title_short Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds
title_full Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds
title_fullStr Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds
title_full_unstemmed Periodic Pieces of Pseudo-Anosov Flows in Graph Manifolds
title_sort periodic pieces of pseudo-anosov flows in graph manifolds
publisher Florida State University
url http://purl.flvc.org/fsu/fd/FSU_migr_etd-9479
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