Dmitry A. Fedosov

This study quantifies RBC shape recovery dynamics during Plasmodium falciparum infection, showing that parasite-induced membrane stiffening and knob architecture significantly affect relaxation time.

This study investigates how Trypanosoma brucei adapts its motility to navigate confined environments using high-speed video and digital holography microscopy.

The paper models E. coli run-and-tumble behavior using fluid dynamics simulations and experiments, finding that flagellar rigidity and arrangement, not number, primarily influence motility.

This study develops a trypanosome model and uses hydrodynamic simulations to analyze how mechanical features affect swimming behavior, showing the importance of body elasticity and flagellum dynamics.

The paper shows that extracellular vesicles bind to stretched von Willebrand factor, promoting platelet activation and aggregation, which can trap circulating tumor cells.

This study investigates RBC aggregation and disaggregation mechanisms using simulations, finding depletion interactions dominate aggregation while both mechanisms contribute to disaggregation.