# Research Areas

Supervisor: **Professor Mihai Cucuringu
**Development and mathematical & statistical analysis of algorithms that extract information from massive noisy data sets. Computationally-hard inverse problems on large graphs with applications in machine learning. Spectral and semidefinite programming algorithms with application to ranking, clustering, group synchronization, phase unwrapping. Network analysis: community and core-periphery structure, network time series. Statistical analysis of financial data, statistical arbitrage, limit order books, risk models.

Supervisor: **Professor George Deligiannidis**

Computational statistics, in particular theory and methodology for Monte Carlo methods, especially MCMC and SMC for high-dimensional targets; limit theorems and convergence rates for Markov chains and stochastic processes in general; random walks.

Supervisor: **Professor Christl Donnelly**

Applied statistics; Real-time analysis of outbreaks; Analysis of movement data, including data from tracked individuals and population-level optical flow; Mathematical modelling of disease transmission; Vaccine trial design; Cluster randomised trials.

Supervisor: **Professor Arnaud Doucet**

Possible research areas: Bayesian Computation, Monte Carlo methods, Statistical Machine Learning.

Supervisor: **Professor Robin Evans**

Graphical models; Causal inference; Marginal modelling; Combining causal information from different experimental settings; Confounding and selection bias; High-dimensional model selection, and low dimensional model selection in the presence of high-dimensional confounders.

Supervisor: **Professor Chris Holmes**

Bayesian statistics, statistical machine learning, decision theory, scalable models, biomedical applications.

Supervisor: **Professor Geoff Nicholls**

Applied Bayesian Statistics and Statistical Methods, focusing on building and fitting models for complex stochastic systems.

Computational Statistics, in particular Monte Carlo Algorithms. Current projects: Multiple imputation and model misspecification;

Monte Carlo filtering and inference for partial orders from rank data; Spatial Statistics and the location of texts;

Phylogenetic inference for cultural traits.

Supervisor: **Professor Patrick Rebeschini**

Investigation of fundamental principles in high-dimensional probability, statistics and optimisation to design computationally efficient and statistically optimal algorithms for machine learning.

Supervisor: **Professor Judith Rousseau**

High dimensional Bayesian statistics and Bayesian nonparametrics, asymptotic theory, model selection and Bayesian tests, Bayesian computation.

Supervisor: **Professor Dino Sejdinovic**

Statistical machine learning, kernel methods, nonparametric statistics, measures of association and multivariate interaction.

Supervisor: **Professor David Steinsaltz**

Survival analysis and clinical trials, including Bayesian methods and meta-analysis. Longitudinal and genetic data in medical and sociological contexts.

Supervisor: **Professor Yee Whye Teh**

Machine learning. Probabilistic modelling, learning and inference.

Supervisor: **Professor Julien Berestycki**

Branching processes, branching random walks, coalescence, fragmentation, population genetics, reaction-diffusion equations, front propagation, random trees.

Supervisor: **Professor Alison Etheridge**

Stochastic analysis, especially problems related to stochastic modelling in population genetics.

Supervisor: **Professor Christina Goldschmidt**

Research area: random discrete structures (eg trees and graphs) and their scaling limits.

Supervisor: **Professor James Martin
**Probability theory, with strong links to statistical physics and theoretical computer science. Particular interests include: random graphs; interacting particle systems; models of random growth and percolation; models of coagulation and fragmentation; queueing networks.

Supervisor:** Professor Gesine Reinert**

Investigation of networks such as protein-protein interaction networks and social networks in a statistically rigorous fashion. Often this will require some approximation, and approximations in statistics are another of my research interests. There is an excellent method to derive distances between the distributions of random quantities, namely Stein’s method, and I am interested in Stein’s method also from a theoretical viewpoint. The general area of my research falls under the category Applied Probability and many of the problems and examples I study are from the area of Computational Biology.

Supervisor: **Professor David Steinsaltz**

Random dynamical systems, particularly with applications to population ecology. Evolutionary and biodemographic models of ageing.

Supervisor: **Dr Matthias Winkel**

Probability and stochastic processes, in particular problems involving branching processes, Levy processes, fragmentation processes, random tree structures.

Supervisor: **Professor Charlotte Deane**

Developing novel methodologies to understand and predict protein evolution, interaction, structure and function.

Supervisor: **Professor Garrett Morris**

Developing novel therapeutics and improving our understanding of living systems at the molecular level, in particular methods development in computer-aided drug discovery. Harnessing the increasing amounts of experimental data, and the development of novel algorithms in chemoinformatics and bioinformatics, machine learning, network pharmacology, and structural biology, to help solve real-world drug discovery problems

Supervisor: **Professor Christl Donnelly**

Epidemiology of infectious disease; Real-time analysis of outbreaks; Biostatistics; Disease ecology; Applied statistics.

Supervisor: **Professor Jotun Hein**

Algorithms in Bioinformatics, Computational Biology, Stochastic Models of Genealogies and Sequence Evolution, Mathematical Models of the Origin of Life, Stochastic Models of Network Evolution, Genome Analysis

Supervisor: **Professor Simon Myers**

Statistical and population genomics (fine-scale population structure and migrations, recombination, natural selection on complex traits, association testing, demographic history), statistical approaches for single-cell data (RNA-seq, ATAC-seq), genetic determinants of speciation and fertility in mammals.

Supervisor: **Professor Pier Palamara**

Computational methods for population genetics (natural selection, demographic history); statistical genetics (complex trait heritability, association); scalable methods for large genomic data sets.

If you are interested in biomedical applications of statistics, the Systems Approaches to Biomedical Sciences CDT offers fully funded places to study in the Department.

Additional supervisors/co-supervisors may be available, other than those listed.