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

Mesoscale simulation of biomembranes with FreeDTS
W Pezeshkian, JH Ipsen
Nature Communications
(2024)
15
There and back again: bridging meso- and nano-scales to understand lipid vesicle patterning.
J Cornet, N Coulonges, W Pezeshkian, M Penissat-Mahaut, H Desgrez-Dautet, SJ Marrink, N Destainville, M Chavent, M Manghi
Soft Matter
(2024)
20
Curvature-induced lipid sorting beyond the critical packing parameter
M König, R de Vries, F Grünewald, SJ Marrink, W Pezeshkian
(2023)
Inferring mechanical properties of the SARS-CoV-2 virus particle with nano-indentation tests and numerical simulations
A Nonn, B Kiss, W Pezeshkian, T Tancogne-Dejean, A Cerrone, M Kellermayer, Y Bai, W Li, T Wierzbicki
Journal of the mechanical behavior of biomedical materials
(2023)
148
Mesoscale simulation of biomembranes with FreeDTS
W Pezeshkian, JH Ipsen
(2023)
Molecular architecture and dynamics of SARS-CoV-2 envelope by integrative modeling.
W Pezeshkian, F Grünewald, O Narykov, S Lu, V Arkhipova, A Solodovnikov, TA Wassenaar, SJ Marrink, D Korkin
Structure
(2023)
31
Mesoscale simulations: An indispensable approach to understand biomembranes.
AL Duncan, W Pezeshkian
Biophys J
(2023)
122
Annexin proteins involved in plasma membrane repair reshape a membrane edge: Direct evidence from molecular simulations
MP Pandey, W Pezeshkian, H Khandelia
Biophysical Journal
(2023)
122
Close, but not too close: a mesoscopic description of (a)symmetry and membrane shaping mechanisms.
VT Ruhoff, PM Bendix, W Pezeshkian
Emerg Top Life Sci
(2023)
7
Synthetic Membrane Shaper for Controlled Liposome Deformation
N De Franceschi, W Pezeshkian, A Fragasso, BMH Bruininks, S Tsai, SJ Marrink, C Dekker
ACS Nano
(2022)
17

Research Interest Group

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