Academic Research
Before venturing into deep learning, I did a PhD in Mathematics focusing on the intersection of geometry and string theory.
String theory has, over the past few decades, been a curious venue for a profound interaction between mathematics and physics. The efforts to formulate a fundamental quantum theory of gravity have led several branches of pure mathematics to make an appearance in physics. Most notably, geometry in its various forms has started to take on a prominent role.
My research focused on the geometric objects—higher-dimensional shapes—that appear in string theory and how their properties manifest in the physical theories they are associated with. Usually with opaque names like G2 manifolds or GK geometries, these shapes are often of independent mathematical interest. What makes them especially exciting is the fruitful interplay of mathematics and physics that is present.
Publications
I/c-extremization in M/F-duality
SciPost Physics 9, 029 (2020)
This work explores the relationship between different string theory dualities and their geometric interpretations, focusing on extremization principles in higher-dimensional theories.
Read paperHiggs Bundles for M-theory on G2-manifolds
Journal of High Energy Physics 2019, 199 (2019)
An investigation into the mathematical structures (Higgs bundles) that arise when considering M-theory compactifications on seven-dimensional G2 manifolds, bridging algebraic geometry and theoretical physics.
Read paper