Abstract: Many species of bacteria swim through viscous environments by rotating multiple helical flagella. The filaments gather behind the cell body and form a close helical bundle, which propels the cell forward during a “run”. The filaments inside the bundle cannot be continuously actuated, nor can they easily unbundle, if they are tangled around one another. The fact that bacteria can passively form coherent bundles, i.e. bundles which do not contain tangled pairs of filaments, may appear surprising given that flagella are actuated by uncoordinated motors. In this article, we establish the theoretical conditions under which a pair of rigid helical filaments can form a tangled bundle, and we compare these constraints with experimental da...
Peritrichous bacteria exploit bundles of helical flagella for propulsion and chemotaxis. Here, chang...
Most bacteria swim in liquid environments by rotating one or several flagella. The long external fil...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...
Microscopic-scale swimming has been a very active area of research in the last couple of decades. Th...
The surface distribution of flagella in peritrichous bacterial cells has been traditionally assumed ...
Peritrichous bacteria swim in viscous fluids by rotating multiple helical flagellar filaments. As th...
Swimming Escherichia coli cells are propelled by the rotary motion of their flagellar filaments. In ...
Many types of bacteria swim by rotating a bundle of helical filaments also called flagella. Each fil...
Peritrichous bacteria such as Escherichia coli swim in viscous fluids by forming a helical bundle of...
AbstractThe corkscrew-like flagellar filaments emerging from the surface of bacteria such as Salmone...
Experiments and mathematical modeling show that complex flows driven by unexpected flagellar arrange...
Twenty years ago the experiments of Hotani revealed that flagellar polymorphism (the ability of bact...
Bacterial mobility is powered by rotation of helical flagellar filaments driven by rotary motors. Fl...
peer reviewedWe characterize the bundle properties for three different strains of B. subtilis bacter...
Most bacteria swim in liquid environments by rotating one or several flagella. The long external fil...
Peritrichous bacteria exploit bundles of helical flagella for propulsion and chemotaxis. Here, chang...
Most bacteria swim in liquid environments by rotating one or several flagella. The long external fil...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...
Microscopic-scale swimming has been a very active area of research in the last couple of decades. Th...
The surface distribution of flagella in peritrichous bacterial cells has been traditionally assumed ...
Peritrichous bacteria swim in viscous fluids by rotating multiple helical flagellar filaments. As th...
Swimming Escherichia coli cells are propelled by the rotary motion of their flagellar filaments. In ...
Many types of bacteria swim by rotating a bundle of helical filaments also called flagella. Each fil...
Peritrichous bacteria such as Escherichia coli swim in viscous fluids by forming a helical bundle of...
AbstractThe corkscrew-like flagellar filaments emerging from the surface of bacteria such as Salmone...
Experiments and mathematical modeling show that complex flows driven by unexpected flagellar arrange...
Twenty years ago the experiments of Hotani revealed that flagellar polymorphism (the ability of bact...
Bacterial mobility is powered by rotation of helical flagellar filaments driven by rotary motors. Fl...
peer reviewedWe characterize the bundle properties for three different strains of B. subtilis bacter...
Most bacteria swim in liquid environments by rotating one or several flagella. The long external fil...
Peritrichous bacteria exploit bundles of helical flagella for propulsion and chemotaxis. Here, chang...
Most bacteria swim in liquid environments by rotating one or several flagella. The long external fil...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...