F
Frank Jülicher
Researcher at Max Planck Society
Publications - 405
Citations - 34181
Frank Jülicher is an academic researcher from Max Planck Society. The author has contributed to research in topics: Molecular motor & Entropy production. The author has an hindex of 90, co-authored 384 publications receiving 28421 citations. Previous affiliations of Frank Jülicher include Simon Fraser University & Dresden University of Technology.
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High-precision tracking of sperm swimming fine structure provides strong test of resistive force theory
TL;DR: This theory accurately predicts the complex trajectories of sperm cells from the detailed shape of their flagellar beat across different time scales, consistent with quantitative predictions of resistive force theory.
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Spontaneous Oscillations of Collective Molecular Motors
Frank Jülicher,Jacques Prost +1 more
TL;DR: In this article, a physical mechanism which can lead to oscillatory motion of molecular motors cooperating in large groups when the system is elastically coupled to its environment is presented, which is a characteristic type of oscillatory behavior with cusplike extrema.
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Energy transduction of isothermal ratchets: generic aspects and specific examples close to and far from equilibrium.
Andrea Parmeggiani,Andrea Parmeggiani,Frank Jülicher,Frank Jülicher,Armand Ajdari,Armand Ajdari,Jacques Prost,Jacques Prost +7 more
TL;DR: The energetics of isothermal ratchets which are driven by a chemical reaction between two states, and operate in contact with a single heat bath of constant temperature are studied.
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Chemotaxis of sperm cells
TL;DR: It is concluded that sampling a concentration field of chemoattractant along circular and helical swimming paths is a robust strategy for chemotaxis that works reliably for a vast range of parameters.
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Generic aspects of axonemal beating
Sébastien Camalet,Frank Jülicher +1 more
TL;DR: It is shown that periodic filament motion can be generated by a self-organization of elastic filaments and internal active elements, such as molecular motors, via a dynamic instability termed Hopf bifurcation, and the behaviour of the system is shown to be independent of many microscopic details of the active system.