E. A. Katrukha

This study investigates how CAMSAP proteins and CDK5RAP2 regulate microtubule release from γ-TuRC, revealing their roles in microtubule nucleation and stabilization.

The paper maps the three-dimensional organization and abundance of microtubule subtypes in mammalian neurons using super-resolution imaging and a novel analysis pipeline.

This study shows that microtubule-stabilizing agents induce lattice defects that cause long-range catastrophes in microtubule growth.

The paper shows that KIF5B and KIF13B work together to transport secretory vesicles to microtubule plus ends, with KIF5B playing a dominant role and KIF13B assisting in reaching newly polymerized ends.

This study reconstitutes membrane tubulation using dynamic microtubules and proteins, revealing three motor-independent mechanisms for membrane remodeling.

The paper shows that MAP7 family proteins activate kinesin-1 by enhancing its microtubule binding and processivity through transient interactions.

This study uses quantum dots to investigate how cytoskeletal structures affect intracellular transport dynamics, revealing actin's role in suppressing microtubule remodeling and influencing diffusion rates.