AbstractCertain motile bacteria employ rotating flagella for propulsion. The relative flexibility of two key components of the flagellum, filament and hook, is partially responsible for the mechanistic workings of this motor. A new computational method, the quantized elastic deformational model, was employed in this article to calculate the dimensionless twist/bend ratio (EI/GJ) of the filament and hook, providing a quantitative means to compare their relative stiffness. Both ratios were much <1.0, an average of 0.0440 for the filament and 0.0512 for the hook, indicating that within each structure bending is favored over twisting. These two ratios, along with previous experimental measurements, allowed us to propose a theoretical Young's mo...
AbstractA particle-based hybrid method of elastic network model and smooth-particle hydrodynamics ha...
The filament of a bacterial flagellum is a tube-like organelle made of single protein – flagellin, a...
The rotary motor of bacteria is a natural nano-technological marvel that enables cell locomotion by ...
AbstractCertain motile bacteria employ rotating flagella for propulsion. The relative flexibility of...
International audienceFor many bacteria, motility stems from one or more flagella, each rotated by t...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...
AbstractMany types of bacteria propel themselves using elongated structures known as flagella. The b...
The stiffness constant S of the model is related to the material property of the flagellum found fro...
SummaryThe bacterial flagellar hook is a short, highly curved tubular structure connecting the rotar...
Many types of bacteria swim by rotating a bundle of helical filaments also called flagella. Each fil...
The bacterial flagellum is a large molecular complex composed of thousands of protein subunits for m...
AbstractA novel model for the action of the flagellar motor of bacteria is presented in which rotati...
© The Author(s) 2019.The Bacterial flagellar hook is a short supercoiled tubular structure made from...
AbstractThe bacterial flagellar motor is a rotary molecular machine that rotates the helical filamen...
AbstractBacterial flagella can adopt several different helical shapes in response to varying environ...
AbstractA particle-based hybrid method of elastic network model and smooth-particle hydrodynamics ha...
The filament of a bacterial flagellum is a tube-like organelle made of single protein – flagellin, a...
The rotary motor of bacteria is a natural nano-technological marvel that enables cell locomotion by ...
AbstractCertain motile bacteria employ rotating flagella for propulsion. The relative flexibility of...
International audienceFor many bacteria, motility stems from one or more flagella, each rotated by t...
A crucial structure in the motility of flagellated bacteria is the hook, which connects the flagellu...
AbstractMany types of bacteria propel themselves using elongated structures known as flagella. The b...
The stiffness constant S of the model is related to the material property of the flagellum found fro...
SummaryThe bacterial flagellar hook is a short, highly curved tubular structure connecting the rotar...
Many types of bacteria swim by rotating a bundle of helical filaments also called flagella. Each fil...
The bacterial flagellum is a large molecular complex composed of thousands of protein subunits for m...
AbstractA novel model for the action of the flagellar motor of bacteria is presented in which rotati...
© The Author(s) 2019.The Bacterial flagellar hook is a short supercoiled tubular structure made from...
AbstractThe bacterial flagellar motor is a rotary molecular machine that rotates the helical filamen...
AbstractBacterial flagella can adopt several different helical shapes in response to varying environ...
AbstractA particle-based hybrid method of elastic network model and smooth-particle hydrodynamics ha...
The filament of a bacterial flagellum is a tube-like organelle made of single protein – flagellin, a...
The rotary motor of bacteria is a natural nano-technological marvel that enables cell locomotion by ...