University Assistant Professor

My group explores cellular processes using multiscale computer simulations. Our broad goal is to connect molecular interactions to cellular-scale form and function.

More specifically, we investigate how molecular interactions give rise to the organisation, shape and mechanical behaviour of biological membranes, and how these properties influence cellular function. We combine statistical physics, molecular dynamics and mesoscale simulations, working closely with experimental collaborators to study protein clustering, membrane remodelling and membrane repair, and the organisation of organelle membranes, such as mitochondria, the endoplasmic reticulum and the Golgi apparatus. A central interest is the interplay between membrane shape and molecular organisation: how interactions among lipids and proteins drive cellular organisation, and how membrane shape and fluctuations, in turn, influence their collective behaviour.

My group also develops computational methods and open-source software that connect molecular detail with larger cellular structures. These include:

Publications

Mechanism of Shiga Toxin Clustering on Membranes.
W Pezeshkian, H Gao, S Arumugam, U Becken, P Bassereau, J-C Florent, JH Ipsen, L Johannes, JC Shillcock
ACS Nano
(2016)
11
Membrane invagination induced by Shiga toxin B-subunit: From molecular structure to tube formation
W Pezeshkian, AG Hansen, L Johannes, H Khandelia, JC Shillcock, PBS Kumar, JH Ipsen
Soft Matter
(2016)
12
The effects of globotriaosylceramide tail saturation level on bilayer phases.
W Pezeshkian, VV Chaban, L Johannes, J Shillcock, JH Ipsen, H Khandelia
Soft Matter
(2015)
11
Distribution of counterions and interaction between two similarly charged dielectric slabs: Roles of charge discreteness and dielectric inhomogeneity
W Pezeshkian, N Nikoofard, D Norouzi, F Mohammad-Rafiee, H Fazli
Physical Review E Statistical Nonlinear and Soft Matter Physics
(2012)
85

Research Interest Group

Email address