Experimental observations on cyclic splitting and bending by a flagellar doublet pair are modeled using forces obtained from a model for dynein mechanochemistry, based on ideas introduced by Andrew Huxley and Terrill Hill and extended previously for modeling flagellar movements. The new feature is elastic attachment of dynein to the A doublet, which allows movement perpendicular to the A doublet and provides adhesive force that can strain attached dyneins. This additional strain influences the kinetics of dynein attachment and detachment. Computations using this dynein model demonstrate that very simple and realistic ideas about dynein mechanochemistry are sufficient for explaining the separation and reattachment seen experimentally with fl...
The physical basis of flagellar and ciliary beating is a major problem in biology which is still far...
A set of nonlinear differential equations describing flagellar motion in an external viscous medium ...
Flagellar dyneins are the molecular motors responsible for producing the propagating bending motions...
Experimental observations on cyclic splitting and bending by a flagellar doublet pair are modeled us...
Experimental observations on cyclic splitting and bending by a flagellar doublet pair are modeled us...
A regular cycle of dynein-driven sliding, doublet separation, doublet reassociation, and resumption ...
AbstractA regular cycle of dynein-driven sliding, doublet separation, doublet reassociation, and res...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
Computer simulations have been carried out with a model flagellumthat can bend in three dimensions....
A study of the factors that regulate ciliary beating was conducted in an effort to better understand...
A program has been developed for digital computer simulation of the movement of a flagellar model co...
AbstractThe bending of cilia and flagella is driven by forces generated by dynein motor proteins. Th...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Abstract Dynein is a minus-end-directed motor that generates oscillatory motion in eukaryotic flagel...
AbstractIn the axoneme of eukaryotic flagella the dynein motor proteins form crossbridges between th...
The physical basis of flagellar and ciliary beating is a major problem in biology which is still far...
A set of nonlinear differential equations describing flagellar motion in an external viscous medium ...
Flagellar dyneins are the molecular motors responsible for producing the propagating bending motions...
Experimental observations on cyclic splitting and bending by a flagellar doublet pair are modeled us...
Experimental observations on cyclic splitting and bending by a flagellar doublet pair are modeled us...
A regular cycle of dynein-driven sliding, doublet separation, doublet reassociation, and resumption ...
AbstractA regular cycle of dynein-driven sliding, doublet separation, doublet reassociation, and res...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
Computer simulations have been carried out with a model flagellumthat can bend in three dimensions....
A study of the factors that regulate ciliary beating was conducted in an effort to better understand...
A program has been developed for digital computer simulation of the movement of a flagellar model co...
AbstractThe bending of cilia and flagella is driven by forces generated by dynein motor proteins. Th...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Abstract Dynein is a minus-end-directed motor that generates oscillatory motion in eukaryotic flagel...
AbstractIn the axoneme of eukaryotic flagella the dynein motor proteins form crossbridges between th...
The physical basis of flagellar and ciliary beating is a major problem in biology which is still far...
A set of nonlinear differential equations describing flagellar motion in an external viscous medium ...
Flagellar dyneins are the molecular motors responsible for producing the propagating bending motions...