Tue, 19 Apr 2016
12:00 -
13:15
L4
D is for Diophantine Equations by Dr Jonathan Pila FRS.
Fri, 17 Jun 2016
14:00 -
15:00
L3
Development of patient-specific multi-scale models to understand atherogenesis: comparison with in vivo data
Dr Vanessa Diaz
(Dept of Department of Mechanical Engineering University College London)
Fri, 10 Jun 2016
14:00 -
15:00
L3
Does cell surface heterogeneity affect adhesion?
Professor Brian Wood
(School of Chemical Biological & Environmental Engineering Oregon State University)
Fri, 03 Jun 2016
14:00 -
15:00
L3
The impact of geometry and diffusion barriers in cell polarity and receptor dynamics
Dr Tatiana Márquez-Lago
(Integrative Systems Biology Unit Okinawa Institute of Science and Technology)
Fri, 27 May 2016
14:00 -
15:00
L3
From 'omics data to landscapes: dimensionality reduction and clustering through geometric graphs
Professor Mauricio Barahona
(Dept of Mathematics Imperial College London)
Fri, 20 May 2016
14:00 -
15:00
L3
Alignment-free sequence and network comparison
Professor Gesine Reinert
(Dept of Statistics University of Oxford)
Fri, 13 May 2016
14:00 -
15:00
L3
Bayesian parameter estimation for stochastic dynamic biological models
Professor Darren Wilkinson
(School of Mathematics & Statistics Newcastle University)
Fri, 06 May 2016
14:00 -
15:00
L3
Can puzzles self-assemble?
Professor Daan Frenkel
(Dept of Chemistry University of Cambridge)
Abstract
A holy grail of nano-technology is to create truly complex, multi-component structures by self assembly.
Most self-assembly has focused on the creation of `structural complexity'. In my talk, I will discuss `Addressable Complexity': the creation of structures that contain hundreds or thousands of
distinct building blocks that all have to find their place in a 3D structure.