Author
D. B. Oelz
Listed by name: these papers carry no ORCID for this author, so different people with the same name may be mixed together.
Biology Disciplines
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2021-2023 · peak 3/yrCo-Author Collaboration Network
10 top collaborators · 17 mutual co-author links5 papers
Recent·Most cited
Compression-dependent microtubule reinforcement comprises a mechanostat which enables cells to navigate confined environments
R. J. Ju, A. D. Falconer, K. M. Dean, R. P. Fiolka, D. P. Sester, M. Nobis, P. Timpson, A. J. Lomakin, G. Danuser, M. D. White, D. B. Oelz, N. K. Haass, S. J. Stehbens
The paper shows that microtubules form a mechanostat to coordinate contractility and nuclear positioning during confined cell migration.
bioRxiv · Feb 8, 2022Cell Biology
F-actin bending facilitates net actomyosin contraction by inhibiting expansion with plus-end-located myosin motors
A. K. Y. Tam, A. Mogilner, D. B. Oelz
The paper models actomyosin contraction at the filament scale, showing that F-actin bending reduces expansive stress and enables net contraction through geometric asymmetry.
bioRxiv · Oct 3, 2021Biophysics
Spatial redistribution of neurosecretory vesicles upon stimulation accelerates their directed transport to the plasma membrane
E. B. Schenk, F. A. Meunier, D. B. Oelz
The paper develops a Markov state model to describe neurosecretory vesicle transport and binding kinetics, showing spatial redistribution upon stimulation accelerates directed transport to the plasma membrane.
bioRxiv · May 20, 2021Cell Biology
Protein Friction and Filament Bending Facilitate Contraction of Disordered Actomyosin Networks
A. K. Y. Tam, A. Mogilner, D. B. Oelz
This study uses mathematical modeling to show that protein friction and actin filament bending are necessary for contraction of disordered actomyosin networks, with filament turnover required to sustain contraction.
bioRxiv · Feb 23, 2021Biophysics