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Autori principali: Kurzthaler, Christina, Zhao, Yongfeng, Zhou, Nan, Schwarz-Linek, Jana, Devailly, Clemence, Arlt, Jochen, Huang, Jian-Dong, Poon, Wilson C. K., Franosch, Thomas, Tailleur, Julien, Martinez, Vincent A.
Natura: Preprint
Pubblicazione: 2022
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Accesso online:https://arxiv.org/abs/2212.11222
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author Kurzthaler, Christina
Zhao, Yongfeng
Zhou, Nan
Schwarz-Linek, Jana
Devailly, Clemence
Arlt, Jochen
Huang, Jian-Dong
Poon, Wilson C. K.
Franosch, Thomas
Tailleur, Julien
Martinez, Vincent A.
author_facet Kurzthaler, Christina
Zhao, Yongfeng
Zhou, Nan
Schwarz-Linek, Jana
Devailly, Clemence
Arlt, Jochen
Huang, Jian-Dong
Poon, Wilson C. K.
Franosch, Thomas
Tailleur, Julien
Martinez, Vincent A.
contents We characterize the full spatiotemporal gait of populations of swimming {\it Escherichia coli} using renewal processes to analyze the measurements of intermediate scattering functions. This allows us to demonstrate quantitatively how the persistence length of an engineered strain can be controlled by a chemical inducer and to report a controlled transition from perpetual tumbling to smooth swimming. For wild-type {\it E.~coli}, we measure simultaneously the microscopic motility parameters and the large-scale effective diffusivity, hence quantitatively bridging for the first time small-scale directed swimming and macroscopic diffusion.
format Preprint
id arxiv_https___arxiv_org_abs_2212_11222
institution arXiv
publishDate 2022
record_format arxiv
spellingShingle Characterization and Control of the Run-and-Tumble Dynamics of {\it Escherichia Coli}
Kurzthaler, Christina
Zhao, Yongfeng
Zhou, Nan
Schwarz-Linek, Jana
Devailly, Clemence
Arlt, Jochen
Huang, Jian-Dong
Poon, Wilson C. K.
Franosch, Thomas
Tailleur, Julien
Martinez, Vincent A.
Soft Condensed Matter
Biological Physics
We characterize the full spatiotemporal gait of populations of swimming {\it Escherichia coli} using renewal processes to analyze the measurements of intermediate scattering functions. This allows us to demonstrate quantitatively how the persistence length of an engineered strain can be controlled by a chemical inducer and to report a controlled transition from perpetual tumbling to smooth swimming. For wild-type {\it E.~coli}, we measure simultaneously the microscopic motility parameters and the large-scale effective diffusivity, hence quantitatively bridging for the first time small-scale directed swimming and macroscopic diffusion.
title Characterization and Control of the Run-and-Tumble Dynamics of {\it Escherichia Coli}
topic Soft Condensed Matter
Biological Physics
url https://arxiv.org/abs/2212.11222