Eukaryotic flagella contain tens of thousands of dynein motor enzymes, arranged in regular arrays along the outer doublet microtubules of the axoneme-- the internal cytoskeleton of a flagellum or cilium. These dyneins produce longitudinal sliding between the doublet microtubules. They must interact cooperatively to generate the bending waves that are required for efficient propulsion of spermatozoa, or other situations. Sperm flagella can generate a variety of bending patterns, including nearly two dimensional patterns that can be approximated as planar bending waves and three-dimensional bending patterns that are approximately helical waves. In some situation, they can switch between these two types of bending [1,2]. Computer programs have...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Mammalian sperm cells manage locomotion by the movement of their flagella. Dynein motors inside the ...
Computer simulations have been carried out with a model flagellumthat can bend in three dimensions....
AbstractThe movement of eukaryotic flagella is characterized by its oscillatory nature [1]. In sea u...
Cilia and eukaryotic flagella are slender cellular appendages whose regular beating propels cells an...
AbstractEukaryotic flagella produce a swimming force by coordinating thousands of dynein motor prote...
Cilia and flagella are hairlike organelles that propel cells through fluid. The active motion of the...
The motile structure within eukaryotic cilia and flagella is the axoneme. This structure typically c...
The bending of a flagellum, such as the flagellum which forms the tail of a sea-urchin spermatozoon,...
Cilia and flagella are hair-like appendages of eukaryotic cells. They are actively bending structure...
AbstractWhen mouse spermatozoa swim in media of high viscosity, additional waves of bending are supe...
AbstractThe bending of cilia and flagella is driven by forces generated by dynein motor proteins. Th...
Eukaryotic cell swimming is frequently actuated via the flagellum, which is a slender flexible appen...
AbstractThe 9+2 configuration of axonemes is one of the most conserved structures of eukaryotic orga...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Mammalian sperm cells manage locomotion by the movement of their flagella. Dynein motors inside the ...
Computer simulations have been carried out with a model flagellumthat can bend in three dimensions....
AbstractThe movement of eukaryotic flagella is characterized by its oscillatory nature [1]. In sea u...
Cilia and eukaryotic flagella are slender cellular appendages whose regular beating propels cells an...
AbstractEukaryotic flagella produce a swimming force by coordinating thousands of dynein motor prote...
Cilia and flagella are hairlike organelles that propel cells through fluid. The active motion of the...
The motile structure within eukaryotic cilia and flagella is the axoneme. This structure typically c...
The bending of a flagellum, such as the flagellum which forms the tail of a sea-urchin spermatozoon,...
Cilia and flagella are hair-like appendages of eukaryotic cells. They are actively bending structure...
AbstractWhen mouse spermatozoa swim in media of high viscosity, additional waves of bending are supe...
AbstractThe bending of cilia and flagella is driven by forces generated by dynein motor proteins. Th...
Eukaryotic cell swimming is frequently actuated via the flagellum, which is a slender flexible appen...
AbstractThe 9+2 configuration of axonemes is one of the most conserved structures of eukaryotic orga...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Mammalian sperm cells manage locomotion by the movement of their flagella. Dynein motors inside the ...