activity
20112019
most citedOscillatory surface rheotaxis of swimming E. coli bacteria

126 citations · 418 across the 7 of their papers we have counts for

collaborators

8 papers

cond-mat.soft2019★ 64 cited

E. coli "super-contaminates" narrow ducts fostered by broad run-time distribution

Nuris Figueroa-Morales, Aramis Rivera, Rodrigo Soto +3

One striking feature of bacterial motion is their ability to swim upstream along corners and crevices, by leveraging hydrodynamic interactions. This motion through anatomic ducts o…

physics.flu-dyn2019★ 55 cited

Swimming bacteria in Poiseuille flow: the quest for active Bretherton-Jeffery trajectories

Gaspard Junot, Nuris Figueroa-Morales, Thierry Darnige +4

Using a 3D Lagrangian tracking technique, we determine experimentally the trajectories of non-tumbling E. coli mutants swimming in a Poiseuille flow. We identify a typology of traj…

cond-mat.soft2018★ 126 cited

Oscillatory surface rheotaxis of swimming E. coli bacteria

Arnold Mathijssen, Nuris Figueroa-Morales, Gaspard Junot +3

Bacterial contamination of biological conducts, catheters or water resources is a major threat to public health and can be amplified by the ability of bacteria to swim upstream. Th…

physics.bio-ph2018★ 44 cited

3D spatial exploration by E. coli echoes motor temporal variability

Nuris Figueroa-Morales, Rodrigo Soto, Gaspard Junot +5

Unraveling bacterial strategies for spatial exploration is crucial for understanding the complexity in the organization of life. Bacterial motility determines the spatio-temporal s…

cond-mat.soft2016★ 36 cited

Lagrangian 3D tracking of fluorescent microscopic objects in motion

T. Darnige, N. Figueroa-Morales, P. Bohec +2

We describe the development of a tracking device, mounted on an epi-fluorescent inverted microscope, suited to obtain time resolved 3D Lagrangian tracks of fluorescent passive or a…

cond-mat.soft2015★ 93 cited

Living on the edge: transfer and traffic of E. coli in a confined flow

Nuris Figueroa-Morales, Gastón Miño, Aramis Rivera +4

We quantitatively study the transport of E. coli near the walls of confined microfluidic channels, and in more detail along the edges formed by the interception of two perpendicula…