We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digital in-line holographic microscopy has been used to track single cells with high temporal and spatial accuracy to obtain quantitative data on their behavior. Comparing bloodstream form and insect form trypanosomes as well as mutant and wildtype cells under varying external conditions we were able to derive a general two-state-run-and-tumble-model for trypanosome motility. Differences in the motility of distinct strains indicate that adaption of the trypanosomes to their natural environments involves a change in their mode of swimming
African trypanosomes thrive in the bloodstream and tissue spaces of a wide range of mammalian hosts....
<p>The swimming trajectory and dynamic shape of the simulated model trypanosome (top row) compares w...
Blood is a remarkable habitat: it is highly viscous, contains a dense packaging of cells and perpetu...
We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digi...
We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digi...
We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digi...
The question of how single cells swim is of primary medical importance - especially in the case of p...
To understand much of the behaviour of microbial pathogens, it is necessary to image living cells, t...
<p>The parasites were harvested from infected mice and the cell surface was fluorescently labelled w...
Trypanosomes are single-celled bloodstream parasites and causative agents of African Sleeping Sickne...
Unicellular parasites have developed sophisticated swimming mechanisms to survive in a wide range of...
Unicellular parasites have developed sophisitcated swimming mehanisms to survive in a wide range of ...
International audienceThe highly motile and versatile protozoan pathogen Trypanosoma brucei undergoe...
Blood is a remarkable habitat: it is highly viscous, contains a dense packaging of cells and perpetu...
Analysis of flagellum and cilium beating in three dimensions (3D) is important for understanding cel...
African trypanosomes thrive in the bloodstream and tissue spaces of a wide range of mammalian hosts....
<p>The swimming trajectory and dynamic shape of the simulated model trypanosome (top row) compares w...
Blood is a remarkable habitat: it is highly viscous, contains a dense packaging of cells and perpetu...
We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digi...
We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digi...
We present a quantitative 3D analysis of the motility of the blood parasite Trypanosoma brucei. Digi...
The question of how single cells swim is of primary medical importance - especially in the case of p...
To understand much of the behaviour of microbial pathogens, it is necessary to image living cells, t...
<p>The parasites were harvested from infected mice and the cell surface was fluorescently labelled w...
Trypanosomes are single-celled bloodstream parasites and causative agents of African Sleeping Sickne...
Unicellular parasites have developed sophisticated swimming mechanisms to survive in a wide range of...
Unicellular parasites have developed sophisitcated swimming mehanisms to survive in a wide range of ...
International audienceThe highly motile and versatile protozoan pathogen Trypanosoma brucei undergoe...
Blood is a remarkable habitat: it is highly viscous, contains a dense packaging of cells and perpetu...
Analysis of flagellum and cilium beating in three dimensions (3D) is important for understanding cel...
African trypanosomes thrive in the bloodstream and tissue spaces of a wide range of mammalian hosts....
<p>The swimming trajectory and dynamic shape of the simulated model trypanosome (top row) compares w...
Blood is a remarkable habitat: it is highly viscous, contains a dense packaging of cells and perpetu...