Add to ORKGHolographic 3D tracking was applied to record and analyze the swimming behavior of Pseudomonas aeruginosa. The obtained trajectories allow to qualitatively and quantitatively analyze the free swimming behavior of the bacterium. This can be classified into five distinct swimming patterns. In addition to the previously reported smooth and oscillatory swimming motions, three additional patterns are distinguished. We show that Pseudomonas aeruginosa performs helical movements which were so far only described for larger microorganisms. Occurrence of the swimming patterns was determined and transitions between the patterns were analyzed
MasterMicrobial cells are easily found in geometrically confined environments. The swimming characte...
<div><p>Bacterial motility is associated to a wide range of biological processes and it plays a key ...
It is well known that bacteria, such as Escherichia coli, propel themselves in aqueous media by rota...
Holographic 3D tracking was applied to record and analyze the swimming behavior of \(\textit {Pseudo...
Bacteria sense chemicals, surfaces, and other cells and move toward some and away from others. Study...
<p>(A) 3D representation of trajectories of <i>P. aeruginosa</i>. The optical path and thus the real...
MasterA digital holographic microscopy was employed to measure the 3D motion of free-swimming microo...
Microbial organisms are easily observed in geometrically confined environments. The swimming charact...
The natural habitat of many bacterial swimmers is dominated by interfaces and narrow interstitial sp...
Bacteria sense chemicals, surfaces, and other cells and move toward some and away from others. Study...
The motile behaviour of bacteria underlies many important aspects of their actions, including pathog...
Bacterial biofilms are structured multicellular communities that are responsible for a broad range o...
Tracking bacteria using video microscopy is a powerful experimental approach to probe their motile b...
The swimming patterns of zoospores of the green alga Ulva linza in the vicinity of a surface were in...
AbstractTracking fast-swimming bacteria in three dimensions can be extremely challenging with curren...
MasterMicrobial cells are easily found in geometrically confined environments. The swimming characte...
<div><p>Bacterial motility is associated to a wide range of biological processes and it plays a key ...
It is well known that bacteria, such as Escherichia coli, propel themselves in aqueous media by rota...
Holographic 3D tracking was applied to record and analyze the swimming behavior of \(\textit {Pseudo...
Bacteria sense chemicals, surfaces, and other cells and move toward some and away from others. Study...
<p>(A) 3D representation of trajectories of <i>P. aeruginosa</i>. The optical path and thus the real...
MasterA digital holographic microscopy was employed to measure the 3D motion of free-swimming microo...
Microbial organisms are easily observed in geometrically confined environments. The swimming charact...
The natural habitat of many bacterial swimmers is dominated by interfaces and narrow interstitial sp...
Bacteria sense chemicals, surfaces, and other cells and move toward some and away from others. Study...
The motile behaviour of bacteria underlies many important aspects of their actions, including pathog...
Bacterial biofilms are structured multicellular communities that are responsible for a broad range o...
Tracking bacteria using video microscopy is a powerful experimental approach to probe their motile b...
The swimming patterns of zoospores of the green alga Ulva linza in the vicinity of a surface were in...
AbstractTracking fast-swimming bacteria in three dimensions can be extremely challenging with curren...
MasterMicrobial cells are easily found in geometrically confined environments. The swimming characte...
<div><p>Bacterial motility is associated to a wide range of biological processes and it plays a key ...
It is well known that bacteria, such as Escherichia coli, propel themselves in aqueous media by rota...