activity
20132026
most citedCell body rocking is a dominant mechanism for flagellar synchronization in a swimming alga

149 citations · 225 across the 5 of their papers we have counts for

collaborators
Showing physics.bio-phShow all

5 papers · 1 filter

physics.bio-ph2026

Axonemal bending stiffness of cilia implies single-motor forces above

Maximilian Kotz, Veikko F. Geyer, Benjamin M. Friedrich

The regular bending waves of cilia and flagella provide an iconic model system for the collective dynamics of molecular motors. The known regular arrangement of dynein motors in a…

physics.bio-ph2025★ 1 cited

Motor shot noise explains active fluctuations in a single cilium

Maximilian Kotz, Veikko F. Geyer, Benjamin M. Friedrich

Mesoscopic fluctuations reveal stochastic dynamics of molecules in both inanimate and living matter. We investigate how small-number fluctuations shape the collective dynamics of m…

physics.bio-ph2021★ 1 cited

Ciliary beating patterns map onto a low-dimensional behavioral space that accords with a simple mechanochemical model

Veikko Geyer, Jonathon Howard, Pablo Sartori

Biological systems are robust to perturbations at both the genetic and environmental levels. Yet, these same perturbations can elicit variation in behavior. The interplay between f…

physics.bio-ph2015

Dynamic curvature regulation accounts for the symmetric and asymmetric beats of Chlamydomonas flagella

Pablo Sartori, Veikko Geyer, Andre Scholich +2

Axonemal dyneins are the molecular motors responsible for the beating of cilia and flagella. These motors generate sliding forces between adjacent microtubule doublets within the a…

physics.bio-ph2014★ 30 cited

Motor regulation results in distal forces that bend partially disintegrated Chlamydomonas axonemes into circular arcs

V. Mukundan, P. Sartori, V. F. Geyer +2

The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forces slide adjacent microtubule doublets within the axoneme, the motile cytoskelet…