Featured
-
-
Article |
Reconstitution reveals motor activation for intraflagellar transport
Reconstitution of a functional intraflagellar transport complex in Caenorhabditis elegans provides insight into the recruitment and activation of the kinesin-2 motor protein.
- Mohamed A. A. Mohamed
- , Willi L. Stepp
- & Zeynep Ökten
-
Letter |
Polarized endosome dynamics by spindle asymmetry during asymmetric cell division
Central spindle asymmetry, generated by the kinesin Klp10A and its antagonist Patronin, polarizes endosome motility and provides a mechanism for the asymmetric segregation of signalling endosomes observed in a variety of asymmetrically dividing cell types.
- Emmanuel Derivery
- , Carole Seum
- & Marcos Gonzalez-Gaitan
-
Letter |
Optogenetic control of organelle transport and positioning
An optogenetic strategy allowing light-mediated recruitment of distinct cytoskeletal motor proteins to specific organelles is established; this technique enabled rapid and reversible activation or inhibition of the transport of organelles such as peroxisomes, recycling endosomes and mitochondria with high spatiotemporal accuracy, and the approach was also applied to primary neurons to demonstrate optical control of axonal growth by recycling endosome repositioning.
- Petra van Bergeijk
- , Max Adrian
- & Lukas C. Kapitein
-
Letter |
Polar patterns of driven filaments
Collective motion is a ubiquitous self-organization phenomenon that can be observed in systems ranging from flocks of animals to the cytoskeleton. Similarities between these systems suggest that there are universal underlying principles. This idea can be tested with 'active' or 'driven' fluids, but so far such systems have offered limited parameter control. Here, an active fluid is studied that contains only a few components — actin filaments and molecular motors — allowing the control of all relevant system parameters.
- Volker Schaller
- , Christoph Weber
- & Andreas R. Bausch