Bacterial motility relies chiefly on the rotation of a molecular propeller, the flagellar filament, which is constructed from the protein flagellin. Here, flagellin sequence conservation and diversity is examined in the light of the recently determined flagellar filament structure. As expected, the surface-exposed domains are not conserved. However, the sequences that mediate filament assembly show remarkable conservation, which indicates that all bacterial flagellins are likely to pack into filaments in a similar manner. Flagellins provide a striking illustration of the twin evolutionary themes of conservation and variability
Prokaryotes use a wide variety of structures to facilitate motility. The majority of research to dat...
The bacterial flagellum is a complex and dynamic nanomachine that propels bacteria through liquids. ...
The conserved core of bacterial flagellar motors reflects a shared evolutionary history that preserv...
AbstractThe bacterial flagellum is an example of elegance in molecular engineering. Flagella depende...
Bacterial flagella are helical proteinaceous fibers, composed of the protein flagellin, that confer ...
The bacterial flagellum is one of nature’s most amazing and well-studied nanomachines. Its cell-wall...
Flagella are the chief organelles of motility in bacteria. In recent years, several new findings hav...
Flagella, the primary means of motility in bacteria, are helical filaments that function as microsco...
Flagella, the primary means of motility in bacteria, are helical filaments that function as microsco...
Rotary flagella propel bacteria through liquid and across semisolid environments. Flagella are compo...
The bacterial flagellum is the principal organelle of motility in bacteria. Here, we address the que...
Wolinella succinogenes possesses one polar flagellum, which shows a characteristic surface pattern o...
AbstractThe chemotaxis of bacteria such as Salmonella and Escherichia coli involves smooth swimming ...
Bacterial flagella play key roles in surface attachment and host-bacterial interactions as well as d...
The bacterial flagellar apparatus, which involves similar to 40 different proteins, has been a model...
Prokaryotes use a wide variety of structures to facilitate motility. The majority of research to dat...
The bacterial flagellum is a complex and dynamic nanomachine that propels bacteria through liquids. ...
The conserved core of bacterial flagellar motors reflects a shared evolutionary history that preserv...
AbstractThe bacterial flagellum is an example of elegance in molecular engineering. Flagella depende...
Bacterial flagella are helical proteinaceous fibers, composed of the protein flagellin, that confer ...
The bacterial flagellum is one of nature’s most amazing and well-studied nanomachines. Its cell-wall...
Flagella are the chief organelles of motility in bacteria. In recent years, several new findings hav...
Flagella, the primary means of motility in bacteria, are helical filaments that function as microsco...
Flagella, the primary means of motility in bacteria, are helical filaments that function as microsco...
Rotary flagella propel bacteria through liquid and across semisolid environments. Flagella are compo...
The bacterial flagellum is the principal organelle of motility in bacteria. Here, we address the que...
Wolinella succinogenes possesses one polar flagellum, which shows a characteristic surface pattern o...
AbstractThe chemotaxis of bacteria such as Salmonella and Escherichia coli involves smooth swimming ...
Bacterial flagella play key roles in surface attachment and host-bacterial interactions as well as d...
The bacterial flagellar apparatus, which involves similar to 40 different proteins, has been a model...
Prokaryotes use a wide variety of structures to facilitate motility. The majority of research to dat...
The bacterial flagellum is a complex and dynamic nanomachine that propels bacteria through liquids. ...
The conserved core of bacterial flagellar motors reflects a shared evolutionary history that preserv...