Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build and operate complex molecular 'nanomachines'. Flagella grow at a constant rate to extend several times the length of the cell, and this is achieved by thousands of secreted structural subunits transiting through a central channel in the lengthening flagellum to incorporate into the nascent structure at the distant extending tip. A great mystery has been how flagella can assemble far outside the cell where there is no conventional energy supply to fuel their growth. Recent work published by Evans et al. [Nature (2013) 504: 287-290], has gone some way towards solving this puzzle, presenting a simple and elegant transit mechanism in which growth ...
The bacterial flagellum exemplifies a system where even small deviations from the highly regulated f...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
The bacterial flagellar motor (BFM) is a molecular complex ca. 45 nm in diameter that rotates the pr...
Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build a...
Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how comp...
Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how comp...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
Antoni van Leeuwenhoek observed individual living cells for the first time in history in 1674. Two y...
AbstractThe bacterial flagellum is an example of elegance in molecular engineering. Flagella depende...
The bacterial flagellar motor is the most complex structure in the bacterial cell, driving the ion-d...
The evolution of molecular machines is fundamental to the development of pathogenesis in bacteria. T...
The bacterial flagellum is probably the most complex organelle found in bacteria. Although the ribos...
Experiments and mathematical modeling show that complex flows driven by unexpected flagellar arrange...
The bacterial flagellum is one of nature’s most amazing and well-studied nanomachines. Its cell-wall...
The bacterial flagellum exemplifies a system where even small deviations from the highly regulated f...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
The bacterial flagellar motor (BFM) is a molecular complex ca. 45 nm in diameter that rotates the pr...
Flagella, the rotary propellers on the surface of bacteria, present a paradigm for how cells build a...
Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how comp...
Flagella, the helical propellers that extend from the bacterial surface, are a paradigm for how comp...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
The bacterial flagellum is a self-assembling nanomachine. The external flagellar filament, several t...
Antoni van Leeuwenhoek observed individual living cells for the first time in history in 1674. Two y...
AbstractThe bacterial flagellum is an example of elegance in molecular engineering. Flagella depende...
The bacterial flagellar motor is the most complex structure in the bacterial cell, driving the ion-d...
The evolution of molecular machines is fundamental to the development of pathogenesis in bacteria. T...
The bacterial flagellum is probably the most complex organelle found in bacteria. Although the ribos...
Experiments and mathematical modeling show that complex flows driven by unexpected flagellar arrange...
The bacterial flagellum is one of nature’s most amazing and well-studied nanomachines. Its cell-wall...
The bacterial flagellum exemplifies a system where even small deviations from the highly regulated f...
Flagella can be used to make magnetically-controlled microfluidic and nanoscale devices for biomedic...
The bacterial flagellar motor (BFM) is a molecular complex ca. 45 nm in diameter that rotates the pr...