Bacteria have developed a large array of motility mechanisms to exploit available resources
and environments. These mechanisms can be broadly classified into swimming in aqueous …

Structural biologists have traditionally approached cellular complexity in a reductionist
manner in which the cellular molecular components are fractionated and purified before …

The bacterial flagellar motor is a supramolecular protein machine that drives rotation of the
flagellum for motility, which is essential for bacterial survival in different environments and a …

Many bacteria use the flagellum for locomotion and chemotaxis. Its bidirectional rotation is
driven by a membrane-embedded motor, which uses energy from the transmembrane ion …

The bacterial flagellum is the prototypical protein nanomachine and comprises a rotating
helical propeller attached to a membrane-embedded motor complex. The motor consists of a …

Bacteria swim using a flagellar motor that is powered by stator units. Vibrio spp. are highly
motile bacteria responsible for various human diseases, the polar flagella of which are …

Methane-oxidizing bacteria play a central role in greenhouse gas mitigation and have
potential applications in biomanufacturing. Their primary metabolic enzyme, particulate …

The bacterial flagellum is a macromolecular protein complex that harvests energy from uni-
directional ion flow across the inner membrane to power bacterial swimming via rotation of …

The flagellar stator unit is an oligomeric complex of two membrane proteins (MotA 5 B 2) that
powers bi-directional rotation of the bacterial flagellum. Harnessing the ion motive force …

The bacterial flagellar motor is a huge bidirectional rotary nanomachine that drives rotation
of the flagellum for bacterial motility. The cytoplasmic C ring of the flagellar motor functions …