Bacterial flagellar filaments can undergo a polymorphic phase transition in both vitro and vivo environments. Each bacterial flagellar filament has 12 different helical forms which are macroscopically represented by different pitch lengths and helix radii. For external mechanical force induced filament phase transitions, there is so far only one experiment performed by Hotani in 1982, who showed a very beautiful cyclic phase transition phenomenon in his experiment on isolated flagellar filaments. In the present paper, we give a detailed mechanical analysis on Hotani's experiments. Through theoretical computations, we obtained a phase transition rule based on the phase transition mechanism. The theoretical analysis provides a foundation faci...
To rotate continuously without jamming, the flagellar filaments of bacteria need to be locked in pha...
AbstractThe corkscrew-like flagellar filaments emerging from the surface of bacteria such as Salmone...
AbstractCertain motile bacteria employ rotating flagella for propulsion. The relative flexibility of...
Phase transition is a very common phenomenon in nature. Besides Martensite phase transitions in Shap...
Bacterial flagellar filament can undergo a stress-induced polymorphic phase transition in both vitro...
Twenty years ago the experiments of Hotani revealed that flagellar polymorphism (the ability of bact...
AbstractBacterial flagellar filament can undergo a stress-induced polymorphic phase transition in bo...
Recent experiment of Darnton and Berg [34] showed that phase transition of bacterial flagellar filam...
AbstractBacterial flagella can adopt several different helical shapes in response to varying environ...
Bacterial flagella assume different helical shapes during the tumbling phase of a bacterium but also...
AbstractMany types of bacteria propel themselves using elongated structures known as flagella. The b...
Many types of bacteria swim by rotating a bundle of helical filaments also called flagella. Each fil...
AbstractThe bacterial flagellar filament is a very large macromolecular assembly of a single protein...
AbstractThe flagellar filament, the bacterial organelle of motility, is the smallest rotary propelle...
Austenite and Martensite indicate the phases of solids undergoing phase transformation which we usua...
To rotate continuously without jamming, the flagellar filaments of bacteria need to be locked in pha...
AbstractThe corkscrew-like flagellar filaments emerging from the surface of bacteria such as Salmone...
AbstractCertain motile bacteria employ rotating flagella for propulsion. The relative flexibility of...
Phase transition is a very common phenomenon in nature. Besides Martensite phase transitions in Shap...
Bacterial flagellar filament can undergo a stress-induced polymorphic phase transition in both vitro...
Twenty years ago the experiments of Hotani revealed that flagellar polymorphism (the ability of bact...
AbstractBacterial flagellar filament can undergo a stress-induced polymorphic phase transition in bo...
Recent experiment of Darnton and Berg [34] showed that phase transition of bacterial flagellar filam...
AbstractBacterial flagella can adopt several different helical shapes in response to varying environ...
Bacterial flagella assume different helical shapes during the tumbling phase of a bacterium but also...
AbstractMany types of bacteria propel themselves using elongated structures known as flagella. The b...
Many types of bacteria swim by rotating a bundle of helical filaments also called flagella. Each fil...
AbstractThe bacterial flagellar filament is a very large macromolecular assembly of a single protein...
AbstractThe flagellar filament, the bacterial organelle of motility, is the smallest rotary propelle...
Austenite and Martensite indicate the phases of solids undergoing phase transformation which we usua...
To rotate continuously without jamming, the flagellar filaments of bacteria need to be locked in pha...
AbstractThe corkscrew-like flagellar filaments emerging from the surface of bacteria such as Salmone...
AbstractCertain motile bacteria employ rotating flagella for propulsion. The relative flexibility of...