PhD (2022-)

I am currently undertaking a PhD at the University of Birmingham, supervised by Samuel Johnson and Enrico Amico, and formerly supervised by Wessel Woldman. My PhD focuses on the mathematical modelling of epilepsy using network-based metrics derived from EEG. My PhD has involved the following projects:

Treatment Effects in Epilepsy: A Mathematical Framework For Understanding Response Over Time

An internal collaboration with researchers at the University of Birmingham.
Aim: Assessing the robustness of networks to parameter changes in an associated dynamic network model - modelling a dynamic response ("honeymoon effect") to epilepsy treatment.
Collaborators: Gwen Harrington, Wessel Woldman, Leandro Junges, John Terry
Keywords: epilepsy, brain network model, honeymoon effect, brain network ictogenicity, brain surgery, anti-seizure medication, network physiology
Status: Read our published paper here.

Understanding the Prognosis of Epilepsy from Longitudinal EEG Data

A collaboration with researchers at the University of Melbourne.
Aim: To explore the long-term changes in epileptiform activity in relation to network-based measures and anti-seizure medications.
Collaborators: Anita Dharan, Wendyl D'Souza (Melbourne), Wessel Woldman
Keywords: epilepsy, prognosis, network-based markers, EEG, ambulatory EEG, longitudinal data, anti-seizure medication, brain network models
Status: Ongoing.

EEG-Derived Networks and The Differential Diagnosis of Epilepsy and Functional Dissociative Seizures

A collaboration with researchers at Kings College London.
Aim: Assessing the usefulness of multi-channel network based markers from resting-state EEG in differentiating between epilepsy and functional dissociative seizures, using nested cross-validation of statistical learning models.
Collaborators: Irene Faiman, Paul Shotbolt, Rachel Sparks (KCL), Wessel Woldman
Keywords: epilepsy, FDS, machine learning, differential diagnosis, network-based markers, EEG, brain network models
Status: Ongoing.

Mathematical Modelling of Network-Based Perturbations to the Epileptic Brain

An internal collaboration with researchers at the University of Birmingham.
Aim: Using mathematical models to explore the effect of perturbations in network structure on the emergence of epileptic seizures in the brain.
Collaborators: Catherine Drysdale
Keywords: epilepsy, brain network model, trophic incoherence, non-normal networks, pseudospectra
Status: Ongoing.

Research Associate (2025-)

I am working part-time as a research associate with the ATMOSPHERE project, led from the University of Bristol. This project aims to develop a machine learning algorithm which can forecast epileptic seizures using physiological data from smart watches.

MMath Dissertation (2021-22)

My masters dissertation project, "Modelling the effect of testing on the spread of SARS-CoV-2" used SEIRS-type epidemiological models and aggregated data from Durham University's student lateral flow testing programme to model the potential effect of low-sensitivity, high-specificity testing and isolating on the spread of Coronavirus.