I am a research fellow in the School of Mathematical Sciences at the University of Southampton, working under Adam Pound.

My research interest is in general relativity and (more generally) classical field theories. I focus on

- gravitational wave memory (and more general persistent observables), both in theory and its detection;
- the extreme mass-ratio inspiral (EMRI) problem, within the self-force paradigm, using flux-balance laws; and
- the mathematical structure of isolated systems in gravitational theories, including symmetries and conservation laws.

I approach these problems analytically using the methods of bitensors, black hole perturbation theory, (covariant) phase space, conformal compactification, and spinors. As such, I am also interested in any problems that might be solved by these methods.

I studied physics at the University of Chicago from 2009 to 2013. In 2013 and 2014, I worked as a software engineer at Basis Technology Corp. Under the supervision of Eanna Flanagan, I completed my Ph.D. in physics between 2014 and 2020 at Cornell University (my thesis can be found here). In the summer of 2020, I held the position of graduate lecturer at Cornell University. From the fall of 2020 until the fall of 2023, I was a postdoctoral research associate in physics at the University of Virginia, working under David Nichols.

For a full CV, see here.

Code and selected source files for projects that I have worked on can be found on on my GitLab account. My most notable project is GWForecasts, a set of Python tools for forecasting the ability for gravitational wave detectors to measure memory effects.

Links to my publications:

- Ph.D. defense: Conserved currents in Kerr and gravitational wave memory
- TAPIR Seminar: Asymptotic charges in Einstein-Maxwell theory
- Southampton Self-Force Seminar: Flux-balance laws in self-force theory
- Holography & Gravitational Waves (IFPU): Persistent observables: a generalization of the gravitational wave memory effect