Microswimmers, such as bacteria or motile algae, which typically live in water and soil encounter boundaries very frequently. A wide range of dierent microswimmers seem to spend a signicant amount of time close to such boundaries as opposed to staying in the bulk. Dierent physical mechanisms have been proposed to explain these observations, such as hydrodynamic interactions or steric forces. While hydrodynamics are able to give a good explanation for pusher-type swimmers, its predictions for puller-type swimmers do not explain the trapping at walls. Here the \wall-hugging" eect of puller-type swimmers will be explained. A simple dumbbell model for the cell's shape will be introduced to model the steric wall interactions of Chlamydomonas rei...
We present a simple model for bacteria like Escherichia coil swimming near solid surfaces. It consis...
In this dissertation, the effects of elasticity on hydrodynamic interactions at small scales are inv...
Both biological micro-organisms and synthetic micro-robots propel through viscous liquids to achieve...
Microswimmers, such as bacteria or motile algae, which typically live in water and soil encounter bo...
Interactions between microorganisms and solid boundaries play an important role in biological proces...
Microswimmers such as E. coli bacteria accumulate and exhibit an intriguing dynamics near walls, gov...
Active matter systems are continuously consuming energy from the environment to achieve different pu...
Microorganisms, such as bacteria and microalgae, often live in habitats consisting of a liquid phase...
Interactions between microorganisms and solid boundaries play an important role in biological proces...
International audienceThe microalga Chlamydomonas Reinhardtii (CR) is used here as a model system to...
International audienceThe microalga Chlamydomonas Reinhardtii (CR) is used here as a model system to...
The accumulation of motile cells at solid interfaces increases the rate of surface encounters and th...
International audienceThe microalga Chlamydomonas Reinhardtii (CR) is used here as a model system to...
The accumulation of motile cells at solid interfaces increases the rate of surface encounters and th...
We present a simple model for bacteria like Escherichia coil swimming near solid surfaces. It consis...
We present a simple model for bacteria like Escherichia coil swimming near solid surfaces. It consis...
In this dissertation, the effects of elasticity on hydrodynamic interactions at small scales are inv...
Both biological micro-organisms and synthetic micro-robots propel through viscous liquids to achieve...
Microswimmers, such as bacteria or motile algae, which typically live in water and soil encounter bo...
Interactions between microorganisms and solid boundaries play an important role in biological proces...
Microswimmers such as E. coli bacteria accumulate and exhibit an intriguing dynamics near walls, gov...
Active matter systems are continuously consuming energy from the environment to achieve different pu...
Microorganisms, such as bacteria and microalgae, often live in habitats consisting of a liquid phase...
Interactions between microorganisms and solid boundaries play an important role in biological proces...
International audienceThe microalga Chlamydomonas Reinhardtii (CR) is used here as a model system to...
International audienceThe microalga Chlamydomonas Reinhardtii (CR) is used here as a model system to...
The accumulation of motile cells at solid interfaces increases the rate of surface encounters and th...
International audienceThe microalga Chlamydomonas Reinhardtii (CR) is used here as a model system to...
The accumulation of motile cells at solid interfaces increases the rate of surface encounters and th...
We present a simple model for bacteria like Escherichia coil swimming near solid surfaces. It consis...
We present a simple model for bacteria like Escherichia coil swimming near solid surfaces. It consis...
In this dissertation, the effects of elasticity on hydrodynamic interactions at small scales are inv...
Both biological micro-organisms and synthetic micro-robots propel through viscous liquids to achieve...