I’m a PhD student at the University of Strathclyde in the amazing MSP group, under the supervision of Neil Ghani and Scott Cunningham.

I’m working in applied category theory, focusing on categorical cybernetics and applied topos theory. Here’s my full academic CV.

I’m a great admirer of Alexandre Grothendieck, to understand why I suggest reading a short biography.

I listen to a lot of music, I like photography, cooking (and eating) and productive debates.

## Current research interests

**Categorical foundations of cybernetics**

Cybernetic systems self-adapt through the observations they make of the ‘environment’ which interacts with them. In games, this brings players to play equilibria. In machine learning, it makes models learn from a dataset.

Category theory can put the mathematical treatment of these systems on strong and flexible foundations. We can then use string diagrams to describe systems compositionally, and categorical logic to impose guarantees on their behaviour.

#### Reading list

- The series of posts on open cybernetics on this blog
- Translating Extensive Form Games to Open Games with Agency by me, Neil Ghani, Jérémy Ledent and Fredrik Nordvall-Forsberg
- Towards Foundations of Categorical Cybernetics by me, Bruno Gavranović, Jules Hedges, Eigil Fjeldgren Rischel
- Compositional Active Inference by Toby St. Clere Smithe.

**Relativization of stochastic calculus**

Some theories are unnaturally complicated when described in the language of sets. Using the languages of other topoi can help to make them *look* simpler, and therefore to *be* simpler to work with. In a sense, relativization is the search for the natural habitat of a mathematical theory, where it can be ‘its true self’ and thrive. Stochastic calculus is one such a theory: topoi of sheaves over suitably defined sites make the theory tame and natural-looking. My current goal is to construct Ito’s and Stratonovich’s integrals in this way.

#### Reading list

- How topos theory can help commutative algebra by Ingo Blechschmidt,
- My name is stochastic calculus but everybody calls me calculus by myself,
- Topos theory and measurability by Asgar Jamneshan.

**Applied sheaf theory**

Sheaf theory is a wonderful abstraction to deal with local/global data. Can we use it to better understand compositional behaviour? This is an open ended question and a long-term research topic. A crucial step into answering this question is: how do we bridge the cartesian-monoidal gap in order to use sheaves on categories of systems?