Driven colloidal particles exhibit a number of interesting nonequilibrium effects. In order to study these effects the driving mechanisms have to be understood in detail. In this paper we show three different driving mechanisms: driving by gravity, ba a gradient in a magnetic field, and by a local chemical reaction. The first mechanism can be used to drive a large variety of particles, while the latter two require specially designed particles. We will describe the design of such particles and discuss differences and similarities of the driving mechanisms
We investigate the collective colloidal current that emerges when strongly confined magnetic microsp...
We study the pair interactions between magnetically driven colloidal microrotors with an anisotropic...
<p>Active matter comprised of many self-driven units exhibit emergent collective behaviors such as p...
We discuss the motion of colloidal particles relative to a two-component fluid consisting of solvent...
The dynamics of colloidal particles driven over optical potential energy landscapes is studied. Exp...
The dynamic behaviour of colloidal particles driven across one-dimensional optical potential energy ...
Abstract. Colloids driven by an external field are ideal model systems for non-equilibrium problems....
Colloidal robots refer to the colloid scale (from nm to μm) machines capable of carrying out program...
Colloidal motors with micrometer dimensions and no moving parts can be propelled by self-diffusiopho...
We study the motion of colloidal particles driven by a constant force over a periodic optical potent...
The influence of an external field acting differently on the two constituents of a binary colloidal ...
We study the propulsion of a micron-size paramagnetic colloidal doublet dispersed in water and drive...
Designing microscopic and nanoscopic self-propelled particles and characterising their motion have b...
Colloidal particles move in the carrier liquid under the action of several forces and torques. When ...
We present a theoretical study of the recently observed dynamical regimes of paramagnetic colloidal ...
We investigate the collective colloidal current that emerges when strongly confined magnetic microsp...
We study the pair interactions between magnetically driven colloidal microrotors with an anisotropic...
<p>Active matter comprised of many self-driven units exhibit emergent collective behaviors such as p...
We discuss the motion of colloidal particles relative to a two-component fluid consisting of solvent...
The dynamics of colloidal particles driven over optical potential energy landscapes is studied. Exp...
The dynamic behaviour of colloidal particles driven across one-dimensional optical potential energy ...
Abstract. Colloids driven by an external field are ideal model systems for non-equilibrium problems....
Colloidal robots refer to the colloid scale (from nm to μm) machines capable of carrying out program...
Colloidal motors with micrometer dimensions and no moving parts can be propelled by self-diffusiopho...
We study the motion of colloidal particles driven by a constant force over a periodic optical potent...
The influence of an external field acting differently on the two constituents of a binary colloidal ...
We study the propulsion of a micron-size paramagnetic colloidal doublet dispersed in water and drive...
Designing microscopic and nanoscopic self-propelled particles and characterising their motion have b...
Colloidal particles move in the carrier liquid under the action of several forces and torques. When ...
We present a theoretical study of the recently observed dynamical regimes of paramagnetic colloidal ...
We investigate the collective colloidal current that emerges when strongly confined magnetic microsp...
We study the pair interactions between magnetically driven colloidal microrotors with an anisotropic...
<p>Active matter comprised of many self-driven units exhibit emergent collective behaviors such as p...