Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how complex molecular machines can be built outside the living cell. Their assembly requires ordered export of thousands of structural subunits across the cell membrane and this is achieved by a type III export machinery located at the flagellum base, after which subunits transit through a narrow channel at the core of the flagellum to reach the assembly site at the tip of the nascent structure, up to 20μm from the cell surface. Here we review recent findings that provide new insights into flagellar export and assembly, and a new and unanticipated mechanism for constant rate flagellum growth.This is the final published version. It is published by Els...
The bacterial flagellum is probably the most complex organelle found in bacteria. Although the ribos...
Bacterial flagellar motor is a highly ordered and complex supramolecular structure that powers rotat...
Antoni van Leeuwenhoek observed individual living cells for the first time in history in 1674. Two y...
Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how comp...
Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build a...
Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build a...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
AbstractThe bacterial flagellum is an example of elegance in molecular engineering. Flagella depende...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
Bacteria propel themselves through liquid environments using rotation of a propeller like organelle,...
The evolution of molecular machines is fundamental to the development of pathogenesis in bacteria. T...
Many bacteria move using a complex, self-assembling nanomachine, the bacterial flagellum. Biosynthes...
The bacterial flagellar motor is the most complex structure in the bacterial cell, driving the ion-d...
Flagella-driven motility contributes to effective bacterial invasion. The bacterial flagellum of Sal...
The bacterial flagellum is a self-assembling, nanomachine-like structure used for locomotion of many...
The bacterial flagellum is probably the most complex organelle found in bacteria. Although the ribos...
Bacterial flagellar motor is a highly ordered and complex supramolecular structure that powers rotat...
Antoni van Leeuwenhoek observed individual living cells for the first time in history in 1674. Two y...
Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how comp...
Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build a...
Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build a...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
AbstractThe bacterial flagellum is an example of elegance in molecular engineering. Flagella depende...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
Bacteria propel themselves through liquid environments using rotation of a propeller like organelle,...
The evolution of molecular machines is fundamental to the development of pathogenesis in bacteria. T...
Many bacteria move using a complex, self-assembling nanomachine, the bacterial flagellum. Biosynthes...
The bacterial flagellar motor is the most complex structure in the bacterial cell, driving the ion-d...
Flagella-driven motility contributes to effective bacterial invasion. The bacterial flagellum of Sal...
The bacterial flagellum is a self-assembling, nanomachine-like structure used for locomotion of many...
The bacterial flagellum is probably the most complex organelle found in bacteria. Although the ribos...
Bacterial flagellar motor is a highly ordered and complex supramolecular structure that powers rotat...
Antoni van Leeuwenhoek observed individual living cells for the first time in history in 1674. Two y...