Identifying density-dependent interactions in collective cell behaviour.
Browning, A Jin, W Plank, M Simpson, M Journal of the Royal Society, Interface volume 17 issue 165 20200143- (29 Apr 2020)
Model-based data analysis of tissue growth in thin 3D printed scaffolds.
Browning, A Maclaren, O Buenzli, P Lanaro, M Allenby, M Woodruff, M Simpson, M Journal of theoretical biology volume 528 110852- (03 Nov 2021)
Designing and interpreting 4D tumour spheroid experiments.
Murphy, R Browning, A Gunasingh, G Haass, N Simpson, M Communications biology volume 5 issue 1 91- (24 Jan 2022)
A stochastic mathematical model of 4D tumour spheroids with real-time fluorescent cell cycle labelling.
Klowss, J Browning, A Murphy, R Carr, E Plank, M Gunasingh, G Haass, N Simpson, M Journal of the Royal Society, Interface volume 19 issue 189 20210903- (06 Apr 2022)

Opportunities for postgraduates to meet colleagues from other departments and colleges are often limited. This society aims to provide a medium for postgraduates to meet and socialise outside of their college and department through mature drinks receptions and networking opportunities. Open to all masters, doctoral, and medicine Y4+ students as well as postdocs.

Thu, 09 Mar 2023
16:00
L4

Mass equidistribution for Siegel cusp forms of degree 2

Abhishek Saha
(Queen Mary University of London)
Abstract

I will talk about some current work with Jesse Jaasaari and Steve Lester where we investigate the analogue of the Quantum Unique Ergodicity (QUE) conjecture in the weight aspect for Siegel cusp forms of degree 2 and full level. Assuming the Generalized Riemann Hypothesis (GRH) we establish QUE for Saito–Kurokawa lifts as the weight tends to infinity. As an application, we prove the equidistribution of zero divisors.

Thu, 02 Mar 2023
16:00
L4

Explicit (and improved) results on the structure of sumsets

Aled Walker
(King's College London)
Abstract

Given a finite set A of integer lattice points in d dimensions, let NA denote the N-fold iterated sumset (i.e. the set comprising all sums of N elements from A). In 1992 Khovanskii observed that there is a fixed polynomial P(N), depending on A, such that the size of the sumset NA equals P(N) exactly (once N is sufficiently large, that is). In addition to this 'size stability', there is a related 'structural stability' property for the sumset NA, which Granville and Shakan recently showed also holds for sufficiently large N. But what does 'sufficiently large' mean in practice? In this talk I will discuss some perspectives on these questions, and explain joint work with Granville and Shakan which proves the first explicit bounds for all sets A. I will also discuss current work with Granville, which gives a tight bound 'up to logarithmic factors' for one of these properties. 

 

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