Coordinated sliding of microtubule doublets, driven by dynein motors, produces periodic beating of the axoneme. Recent structural studies of the axoneme have used cryo-electron tomography to reveal new details of the interactions among some of the multitude of proteins that form the axoneme and regulate its movement. Connections among the several sets of dyneins, in particular, suggest ways in which their actions may be coordinated. Study of the molecular architecture of isolated doublets has provided a structural basis for understanding the doublet's mechanical properties that are related to the bending of the axoneme, and has also offered insight into its potential role in the mechanism of dynein activity regulation
Dynein ATPases are microtubule motors that are critical to diverse processes such as vesicle transpo...
AbstractThe 9+2 configuration of axonemes is one of the most conserved structures of eukaryotic orga...
International audienceThe "9+2" axoneme is a highly specific cylindrical machine whose periodic bend...
The axoneme, which forms the core of eukaryotic flagella and cilia, is one of the largest macromolec...
Generating the complex waveforms characteristic of beating eukaryotic cilia and flagella requires sp...
AbstractThe beating of cilia and flagella is based on the localized sliding between adjacent outer d...
Flagellar dyneins are the molecular motors responsible for producing the propagating bending motions...
Flagellar dynein generates forces that produce relative shearing between doublet microtubules in the...
Doublet microtubules (DMTs) provide a scaffold for axoneme assembly in motile cilia. Aside from α/β ...
Cytoplasmic dynein is a dimeric AAA+ motor protein that performs critical roles in eukaryotic cells ...
SummaryMicrotubule doublet (MTD) is the main skeleton of cilia/flagella. Many proteins, such as dyne...
Proper neuronal function relies on efficient transport within axons and dendrites, the long processe...
Doublet microtubules (DMTs) provide a scaffold for axoneme assembly in motile cilia. Aside from α/β ...
Ciliary movement is caused by coordinated sliding interactions between the peripheral doublet microt...
The motile structure within eukaryotic cilia and flagella is the axoneme. This structure typically c...
Dynein ATPases are microtubule motors that are critical to diverse processes such as vesicle transpo...
AbstractThe 9+2 configuration of axonemes is one of the most conserved structures of eukaryotic orga...
International audienceThe "9+2" axoneme is a highly specific cylindrical machine whose periodic bend...
The axoneme, which forms the core of eukaryotic flagella and cilia, is one of the largest macromolec...
Generating the complex waveforms characteristic of beating eukaryotic cilia and flagella requires sp...
AbstractThe beating of cilia and flagella is based on the localized sliding between adjacent outer d...
Flagellar dyneins are the molecular motors responsible for producing the propagating bending motions...
Flagellar dynein generates forces that produce relative shearing between doublet microtubules in the...
Doublet microtubules (DMTs) provide a scaffold for axoneme assembly in motile cilia. Aside from α/β ...
Cytoplasmic dynein is a dimeric AAA+ motor protein that performs critical roles in eukaryotic cells ...
SummaryMicrotubule doublet (MTD) is the main skeleton of cilia/flagella. Many proteins, such as dyne...
Proper neuronal function relies on efficient transport within axons and dendrites, the long processe...
Doublet microtubules (DMTs) provide a scaffold for axoneme assembly in motile cilia. Aside from α/β ...
Ciliary movement is caused by coordinated sliding interactions between the peripheral doublet microt...
The motile structure within eukaryotic cilia and flagella is the axoneme. This structure typically c...
Dynein ATPases are microtubule motors that are critical to diverse processes such as vesicle transpo...
AbstractThe 9+2 configuration of axonemes is one of the most conserved structures of eukaryotic orga...
International audienceThe "9+2" axoneme is a highly specific cylindrical machine whose periodic bend...