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Amey Joshi

PhD Candidate in Mathematics — Michigan State University


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About Me

Amey Joshi

Hi, I am Amey (Aa+May+Yeah) Joshi. I am currently a PhD candidate at Michigan State University, co-advised by Matthew Hedden and Matthew Stoffregen. My dissertation lies at the intersection of low-dimensional topology, TQFTs, and algebraic techniques. More precisely, I work on Skein Lasagna modules and their applications to four-manifold theory. I am also working on quantum error correction, and specifically on how topological techniques can be applied to construct efficient quantum codes.

Previously, I completed a BS-MS dual degree in Mathematics from IISER Pune. My MS thesis, completed under Prof. B. Doug Park and Prof. Mainak Poddar, concerned abelian branched covers of symplectic four-manifolds, and was published in Advances in Geometry.

You can find my MathSciNet profile here. Outside of mathematics, I enjoy acrylic painting, football/soccer, and playing the harmonica. I am also interested in the history of mathematics — here is a presentation I gave to school students on the history of art, cartography, and their relationship to mathematics.

Education

Michigan State University

August 2022 – Present

PhD Candidate (Mathematics)

Research areas: Skein Lasagna Modules, Low-Dimensional Topology, TQFTs, Quantum Error Correction

IISER Pune

August 2017 – May 2022

BS-MS (Mathematics)

Math subject GPA: 9.6/10

Vivekanand College, Kolhapur

July 2015 – June 2017

Junior College

S.M. Lohia High School, Kolhapur

June 2009 – April 2015

High School

Projects

Abelian Branched Covers

Abelian Branched Covers and the Symplectic Geography Problem

This was my MS thesis project under the supervision of Prof. Mainak Poddar and Prof. Doug Park. I developed prerequisites in four-manifold theory and Seiberg-Witten theory, and built background in symplectic topology via Salamon-McDuff. We worked on constructing exotic symplectic simply connected four-manifolds using branched covering techniques, building on an approach explored in this paper. The strategy is to construct a complex surface admitting a Lefschetz fibration (and hence symplectic structure), then apply surgeries to make it simply connected. Exoticness then follows from Taubes' theorem on Seiberg-Witten invariants of symplectic four-manifolds. We improved the asymptotic formula from the earlier work. The thesis is available here.

h-Cobordism Theorem

h-Cobordism Theorem

This semester project (Fall 2021) was carried out under the supervision of Prof. Mainak Poddar and Prof. Doug Park. We investigated why the h-cobordism theorem fails in dimension four, how it implies the topological Poincaré conjecture in higher dimensions, and why the smooth Poincaré conjecture may fail in dimension four. I received an "O" (Outstanding) grade for this project. Project report: here.

Algebraic and Non-Algebraic Manifolds

Algebraic and Non-Algebraic Manifolds

This mini-project was part of the algebraic geometry course in Fall 2021. I studied the relationship between classical variety theory and scheme theory, and examined complex non-singular algebraic varieties and their association with the category of complex manifolds. Project report: here.

Symplectic Classes

Symplectic Classes

This semester project (Spring 2020) was done under Dr. Steven Spallone. The goal was to understand symplectic characteristic classes and their relationship to Chern and Stiefel-Whitney classes, following Prof. Peter May's work. We gave a new proof of the cohomology rings of the Sp(n) groups via dual induction, avoiding spectral sequences in the main argument (though they were required for classifying spaces). We also established via a careful counterexample that there is no analogue of Wu's formula for symplectic classes in integral cohomology. Project report: here.

Lie Groupoids

Study of Lie Groupoids

This project was part of TIFR-VSRP 2020, carried out under Prof. S.K. Roushon. Following papers of I. Moerdijk on Lie Groupoids and Orbifolds, I studied how classical results in algebraic topology, foliation theory, and differential topology generalize to the setting of Lie Groupoids. Project report: here.

Research Interests

Coding

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