When not transporting cargo, kinesin-1 is autoinhibited by binding of a tail region to the motor domains, but the mechanism of inhibition is unclear. We report the crystal structure of a motor domain dimer in complex with its tail domain at 2.2 angstroms and compare it with a structure of the motor domain alone at 2.7 angstroms. These structures indicate that neither an induced conformational change nor steric blocking is the cause of inhibition. Instead, the tail cross-links the motor domains at a second position, in addition to the coiled coil. This "double lockdown," by cross-linking at two positions, prevents the movement of the motor domains that is needed to undock the neck linker and release adenosine diphosphate. This autoinhibition...
AbstractKinesin-1 is a dimeric motor protein that moves stepwise along microtubules. A two-stranded ...
Kinesin-1 is a vesicle motor that can fold into a compact inhibited conformation that is produced by...
Subcellular compartmentalisation is necessary for eukaryotic cell function. Spatial and temporal reg...
Conventional kinesin-1 is the primary anterograde motor in cells for transporting cellular cargo. Wh...
The two heavy chains of kinesin-1 are dimerized through extensive coiled coil regions and fold into ...
Kinesin-1 is an ATP-driven molecular motor that transports various cargoes in cells, a process that ...
Kinesin-1 is an ATP-driven molecular motor that transports various cargoes in cells, a process that ...
AbstractAlthough the mechanism by which a kinesin-1 molecule moves individually along a microtubule ...
We have determined the X-ray structure of rat kinesin head and neck domains. The folding of the core...
Kinesin is a microtubule-dependent motor protein. We have recently determined the X-ray structure of...
Kinesin is a microtubule-dependent motor protein. We have recently determined the X-ray structure of...
Kinesin is a microtubule-dependent motor pro-tein. We have recently determined the X-ray struc-ture ...
Kinesin is a dimeric motor protein that can move along a microtubule for several microns without rel...
Kinesin-1 activity is regulated by autoinhibition. Intramolecular interactions within the kinesin he...
International audienceMotile kinesins are motor proteins that move unidirectionally along microtubul...
AbstractKinesin-1 is a dimeric motor protein that moves stepwise along microtubules. A two-stranded ...
Kinesin-1 is a vesicle motor that can fold into a compact inhibited conformation that is produced by...
Subcellular compartmentalisation is necessary for eukaryotic cell function. Spatial and temporal reg...
Conventional kinesin-1 is the primary anterograde motor in cells for transporting cellular cargo. Wh...
The two heavy chains of kinesin-1 are dimerized through extensive coiled coil regions and fold into ...
Kinesin-1 is an ATP-driven molecular motor that transports various cargoes in cells, a process that ...
Kinesin-1 is an ATP-driven molecular motor that transports various cargoes in cells, a process that ...
AbstractAlthough the mechanism by which a kinesin-1 molecule moves individually along a microtubule ...
We have determined the X-ray structure of rat kinesin head and neck domains. The folding of the core...
Kinesin is a microtubule-dependent motor protein. We have recently determined the X-ray structure of...
Kinesin is a microtubule-dependent motor protein. We have recently determined the X-ray structure of...
Kinesin is a microtubule-dependent motor pro-tein. We have recently determined the X-ray struc-ture ...
Kinesin is a dimeric motor protein that can move along a microtubule for several microns without rel...
Kinesin-1 activity is regulated by autoinhibition. Intramolecular interactions within the kinesin he...
International audienceMotile kinesins are motor proteins that move unidirectionally along microtubul...
AbstractKinesin-1 is a dimeric motor protein that moves stepwise along microtubules. A two-stranded ...
Kinesin-1 is a vesicle motor that can fold into a compact inhibited conformation that is produced by...
Subcellular compartmentalisation is necessary for eukaryotic cell function. Spatial and temporal reg...