R. M. Robertson-Anderson

This study shows that MAP65-1 forms phase-separated condensates that nucleate microtubule bundles in plant cells, suggesting a universal mechanism for microtubule organization.

This study combines experiments and modeling to show how actin, tubulin, and myosin composites exhibit tunable contractility and restructuring through their connectivity and motor density.

This study investigates myosin-driven actin-microtubule networks and finds they exhibit self-organized contractile dynamics distinct from actin-only networks.

This study investigates how different crosslinking types in actin-microtubule networks affect particle diffusion, finding that actin-microtubule crosslinking causes the most anomalous transport due to increased actin fluctuation heterogeneity.

This study investigates how different crosslinking motifs affect the mechanical properties of actin-microtubule composites, revealing scale-dependent elastic and viscous behaviors.

The paper develops a platform combining SMCT and SPIDDM to study DNA transport and conformation in crowded cytoskeletal networks, revealing distinct roles of actin and microtubules.

This study investigates the mechanical properties of actin-microtubule composites, finding that microtubules significantly increase resistive force and induce power-law stress relaxation.