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

TS2CG as a Membrane Builder.
F Schuhmann, JA Stevens, N Rahmani, I Lindahl, CM Brown, C Brasnett, D Anastasiou, AB Vidal, B Geiger, SJ Marrink, W Pezeshkian
J Chem Theory Comput
(2025)
21
Amyloidogenic proteolysis of APP regulates glutamatergic presynaptic function
A Kapadia, F Schuhmann, E Daskin, J Walter, I Lindahl, N Rahmani, W Pezeshkian, A-S Hafner
(2025)
Physics-based, data-driven cell-scale membrane simulations with HMFF
VJ Maurer, M Siggel, RK Jensen, J Mahamid, J Kosinski, W Pezeshkian
(2025)
Bimodal mechanical response of membrane necks: Implications for the nuclear envelope.
BJ Geiger, W Pezeshkian
(2025)
Integrative Molecular Dynamics Simulations Untangle Cross-Linking Data to Unveil Mitochondrial Protein Distributions
F Schuhmann, KC Akkaya, D Puchkov, S Hohensee, M Lehmann, F Liu, W Pezeshkian
Angew Chem Int Ed Engl
(2025)
64
Integrative Molekulardynamiksimulationen entwirren cross‐linking Daten und zeigen Verteilungen von mitochondrialen Proteinen
F Schuhmann, KC Akkaya, D Puchkov, S Hohensee, M Lehmann, F Liu, W Pezeshkian
Angewandte Chemie
(2025)
137
Physics-Based Protein Networks Might Recover Effectful Mutationsa Case Study on Cathepsin G
F Schuhmann, HN Bordallo, W Pezeshkian
The Journal of Physical Chemistry B
(2024)
128
Integrative Molecular Dynamics Simulations Untangle Cross-Linking Data to Unveil Mitochondrial Protein Distributions
F Schuhmann, KC Akkaya, D Puchkov, M Lehmann, F Liu, W Pezeshkian
(2024)
Shape of the membrane neck around a hole during plasma membrane repair.
MB Klenow, MS Vigsø, W Pezeshkian, J Nylandsted, MA Lomholt, AC Simonsen
Biophysical Journal
(2024)
123
Bending of a lipid membrane edge by annexin A5 trimers.
MP Pandey, PC Telles de Souza, W Pezeshkian, H Khandelia
Biophysical Journal
(2024)
123

Research Interest Group

Email address