To get an idea of the type of maths I do, below are past projects that I supervised as part of the St Andrews summer programme, the Georgia Tech REU program, and the Fields Undergraduate Summer Research Program. Broadly speaking, my research is in tropical geometry, a relatively new area concerned with interactions between algebraic geometry and combinatorics. The topics that show up in my work include (but are not limited to) graphs, polytopes, chip-firing games, Brill-Noether theory, enumerative geometry, toric varieties, matroids, and non-archimedean geometry. Â
If you are interested in doing a PhD with me (or joint with another member of the school), please get in touch. I will not respond to generic emails, so please demonstrate that you have read my website, and that we have some mathematical interests in common.
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Gonality sequences of graphs, with Šimun Dropuljić (summer 2025), currently under peer-review. In this project, we studied a game played on the vertices of a graph, known as the chip-firing game (you can play the game on this website if you wish), to analyse various types of graphs. The chip-firing game originates from algebraic geometry, and allows to transfer deep ideas between these seemingly disparate areas.
Brill-Noether theory of Prym varieties, with Steven Creech, Caelan Ritter, and Derek Wu (summer 2019), published in International Maths Research Notices. In this project, we used the chip-firing game and a combinatorial gadget known as a Young tableau to study cycles in Prym varieties, an important abelian group associated with double covers of curves or graphs.
Bitangents of non-smooth tropical quartics, with Heejong Lee (summer 2017), published in Portugaliae Mathematica. In a celebrated piece of 19th century geometry, PlĂĽcker showed that every plane quartic curve (the set of solutions to an equation of degree 4 in two variables) has 28 lines that are tangent to it at two points. In this project we proved a combinatorial analogue of this classical result: every tropical plane quartic (the combinatorial analogue of a classical quartic) admits 7 bitangent lines.