Maxime Fortier Bourque

Coxeter Assistant Professor University of Toronto, Department of Mathematics

  • Toronto ON

Maxime Fortier Bourque's research focuses on Teichmüller theory

Contact

University of Toronto, Department of Mathematics

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Education/Learning
Research

Research Interests

Teichmüller theory
Hyperbolic Geometry
Complex Analysis and Potential Theory

Accomplishments

Postdoctoral Fellowship

Awarded by the Fonds de recherche du Québec - Nature et technologies.

Postgraduate Scholarship

Awarded by the Natural Sciences and Engineering Research Council of Canada.

Masters Research Scholarship

Awarded by the Fonds de recherche du Québec - Nature et technologies.

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Education

City University of New York (CUNY)

Ph.D.

Mathematics

2015

Advisor: Jeremy Kahn

Brown University

M.Sc

Mathematics

2013

Université Laval

M.Sc

Mathematics

2010

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Languages

  • English
  • French

Articles

Non-convex balls in the Teichmüller metric

arXiv

2016

We prove that the Teichmuller space of surfaces of genus g with p punctures contains balls which are not convex in the Teichmuller metric whenever 3g−3+p>1.

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The holomorphic couch theorem

arXiv

2015

We prove that if two conformal embeddings between Riemann surfaces with finite topology are homotopic, then they are isotopic through conformal embeddings. Furthermore, we show that the space of all conformal embeddings in a given homotopy class deformation retracts into a point, a circle, a torus, or the unit tangent bundle of the codomain, depending on the induced homomorphism on fundamental groups. Quadratic differentials play a central role in the proof.

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The converse of the Schwarz Lemma is false

Annales Academiæ Scientiarum Fennicæ Mathematica

2016

Let h : X → Y be a homeomorphism between hyperbolic surfaces with finite topology. If h is homotopic to a holomorphic map, then every closed geodesic in X is at least as long as the corresponding geodesic in Y, by the Schwarz Lemma. The converse holds trivially when X and Y are disks or annuli, and it holds when X and Y are closed surfaces by a theorem of Thurston. We prove that the converse is false in all other cases, strengthening a result of Masumoto.

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