Jeffrey K. Moore

The paper investigates how tubulin C-terminal tails respond to pH changes and shows their role in regulating microtubule interactions through protonation of glutamate residues.

The paper investigates the role of α-tubulin helix 11 in tubulin heterodimer conformation and microtubule dynamics, showing its impact on disease and evolutionary conservation.

The paper investigates the role of β-tubulin CTT in Kip3 depolymerase activity using yeast, finding it necessary for Kip3-tubulin complex formation but not microtubule binding or motility.

This study identifies how TUBB3/{beta}3 accelerates microtubule plus end maturation through specific lateral interface residues, affecting drug resistance and dynamics.

This study identifies a molecular mechanism by which β-tubulin tails selectively regulate kinesin-5 motors, ensuring proper mitotic spindle function in budding yeast.

This study shows that HNRNPA2B1 prevents specific RNAs from localizing to neuronal projections, affecting motor protein transport and RNA stability.

This study shows EIF4A3 controls axonal tract formation by directly regulating microtubule dynamics in neurons, independent of its RNA-binding function.

The paper investigates the role of the 5' intron in TUB1 gene regulation in S. cerevisiae, showing it enhances -tubulin expression and cell fitness during microtubule stress.