Bacterial surface attachment is mediated by rotary flagella and filamentous appendages called pili. Here, we describe the role of Tad pili during surface colonization of Caulobacter crescentus. Using an optical trap and microfluidic controlled flow conditions as a mimic of natural environments, we demonstrate that Tad pili undergo repeated cycles of extension and retraction. Within seconds after establishing surface contact, pili reorient cells into an upright position promoting walking-like movements against the medium flow. Pili-mediated positioning of the flagellated pole close to the surface facilitates motor-mediated mechanical sensing and promotes anchoring of the holdfast, an adhesive substance that affords long-term attachment. We p...
Caulobacter crescentus is an oligotrophic -proteobacterium with a complex cell cycle involving sessi...
Prokaryotes have the ability to walk on surfaces using type IV pili (TFP), a motility mechanism know...
Prokaryotes have the ability to walk on surfaces using type IV pili (TFP), a motility mechanism know...
ABSTRACT Bacterial surface attachment is mediated by filamentous appendages called pili. Here, we de...
Bacteria are able to colonize surfaces in environmental, industrial, and medical settings, where the...
Surface attachment of bacteria is the first step of biofilm formation and biofilms are associated wi...
AbstractForceful retraction of a bacterial pilus has been directly observed for the first time. As r...
When bacteria encounter surfaces, they respond with surface colonization and virulence induction. Th...
AbstractBacterial biofilms are structured multicellular communities that are responsible for a broad...
We show that Vibrio cholerae, the causative agent of cholera, use their flagella and mannose-sensiti...
We show that Vibrio cholerae, the causative agent of cholera, use their flagella and mannose-sensiti...
AbstractType IV pili (T4P) are very thin protein filaments that extend from and retract into bacteri...
Each bacterial species has a characteristic shape, but the benefits of specific morphologies remain ...
The Type IV pilus (T4P) is a powerful and sophisticated bacterial nanomachine involved in numerous c...
Bacterial pili are proteinaceous motorized nanomachines that play various functional roles including...
Caulobacter crescentus is an oligotrophic -proteobacterium with a complex cell cycle involving sessi...
Prokaryotes have the ability to walk on surfaces using type IV pili (TFP), a motility mechanism know...
Prokaryotes have the ability to walk on surfaces using type IV pili (TFP), a motility mechanism know...
ABSTRACT Bacterial surface attachment is mediated by filamentous appendages called pili. Here, we de...
Bacteria are able to colonize surfaces in environmental, industrial, and medical settings, where the...
Surface attachment of bacteria is the first step of biofilm formation and biofilms are associated wi...
AbstractForceful retraction of a bacterial pilus has been directly observed for the first time. As r...
When bacteria encounter surfaces, they respond with surface colonization and virulence induction. Th...
AbstractBacterial biofilms are structured multicellular communities that are responsible for a broad...
We show that Vibrio cholerae, the causative agent of cholera, use their flagella and mannose-sensiti...
We show that Vibrio cholerae, the causative agent of cholera, use their flagella and mannose-sensiti...
AbstractType IV pili (T4P) are very thin protein filaments that extend from and retract into bacteri...
Each bacterial species has a characteristic shape, but the benefits of specific morphologies remain ...
The Type IV pilus (T4P) is a powerful and sophisticated bacterial nanomachine involved in numerous c...
Bacterial pili are proteinaceous motorized nanomachines that play various functional roles including...
Caulobacter crescentus is an oligotrophic -proteobacterium with a complex cell cycle involving sessi...
Prokaryotes have the ability to walk on surfaces using type IV pili (TFP), a motility mechanism know...
Prokaryotes have the ability to walk on surfaces using type IV pili (TFP), a motility mechanism know...