M. Orhant-Prioux

The paper shows microtubules can breach dense actin networks under mechanical pressure when immobilized.

This study shows that friction forces between actin networks and their substrate guide contraction direction and speed, demonstrating the importance of resistive forces in cell shape control.

This study investigates how actin turnover is sustained with a limited monomer pool by analyzing bead motility and identifying recycling as a key factor.

This study shows that actin network architecture modulates MTOC positioning by balancing pushing forces from growing microtubules.

This paper identifies eukaryote-like actin regulation systems in Asgard archaea, showing calcium-regulated actin dynamics predating eukaryotes.