Molecular motor proteins are crucial for the proper distribution of organelles and vesicles in cells. Much of our current understanding of how motors function stems from studies of single motors moving cargos in vitro. More recently, however, there has been mounting evidence that the cooperation of multiple motors in moving cargos and the regulation of motor–filament affinity could be key mechanisms that cells utilize to regulate cargo transport. Here, we review these recent advances and present a picture of how the different mechanisms of regulating the number of motors moving a cargo could facilitate cellular functions
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
AbstractSubcellular cargos are often transported by teams of processive molecular motors, which rais...
Molecular motor proteins are crucial for the proper distribution of organelles and vesicles in cells...
AbstractThe majority of active transport in the cell is driven by three classes of molecular motors:...
Eukaryotic cells are divided into a complex system of compartments, with their spatial organization ...
AbstractThe number of microtubule motors attached to vesicles, organelles, and other subcellular com...
Single molecule properties of the cargo transporting processive molecular motors myosin-V, kinesin-1...
The spatial organization of the cell depends upon intracellular trafficking of cargos hauled along m...
AbstractA plethora of cytoplasmic motors contribute to the directed transport of a wide range of cel...
The majority of active transport in the cell is driven by three classes of molecular motors: the kin...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
SummaryHow many motors move cargos on microtubules inside a cell, and how do they work together to a...
SummaryBackgroundIntracellular transport via processive kinesin, dynein, and myosin molecular motors...
SummaryWhile most in vitro experiments with motor proteins focus on the behavior of individual motor...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
AbstractSubcellular cargos are often transported by teams of processive molecular motors, which rais...
Molecular motor proteins are crucial for the proper distribution of organelles and vesicles in cells...
AbstractThe majority of active transport in the cell is driven by three classes of molecular motors:...
Eukaryotic cells are divided into a complex system of compartments, with their spatial organization ...
AbstractThe number of microtubule motors attached to vesicles, organelles, and other subcellular com...
Single molecule properties of the cargo transporting processive molecular motors myosin-V, kinesin-1...
The spatial organization of the cell depends upon intracellular trafficking of cargos hauled along m...
AbstractA plethora of cytoplasmic motors contribute to the directed transport of a wide range of cel...
The majority of active transport in the cell is driven by three classes of molecular motors: the kin...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
SummaryHow many motors move cargos on microtubules inside a cell, and how do they work together to a...
SummaryBackgroundIntracellular transport via processive kinesin, dynein, and myosin molecular motors...
SummaryWhile most in vitro experiments with motor proteins focus on the behavior of individual motor...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
Microtubule-based molecular motors often work in small groups to transport cargos in cells. A key qu...
AbstractSubcellular cargos are often transported by teams of processive molecular motors, which rais...