Timothy Krüger

This paper develops an agent-based model of Trypanosoma brucei social motility to determine the mechanisms driving colony pattern formation, finding that chemotactic signal diffusion is key.

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

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 uses expansion microscopy and proximity labeling to reveal an asymmetric nuclear pore structure in trypanosomes, identifying unique and conserved components involved in mRNA export.

This study quantifies social motility in Trypanosoma brucei colonies using scale-free metrics and identifies two distinct growth phases.