In addition to self-propulsion by phoretic mechanisms that arises from an asymmetric distribution of reactive species around a catalytic motor, spherical particles with a uniform distribution of catalytic activity may also propel themselves under suitable conditions. Reactive fluctuation-induced asymmetry can give rise to transient concentration gradients which may persist under certain conditions, giving rise to a bifurcation to self-propulsion. The nature of this phenomenon is analyzed in detail, and particle-level simulations are carried out to demonstrate its existence.status: publishe
We examine a mechanism of locomotion of active particles whose surface is uniformly coated with mobi...
We theoretically study the self-propulsion of a thin (slender) colloid driven by asymmetric chemical...
Asymmetric bimetallic nanomotors are synthesised by seeded growth in solution, providing a convenien...
In addition to self-propulsion by phoretic mechanisms that arises from an asymmetric distribution of...
International audienceIsotropic phoretic particles do not swim individually but can achieve self-pro...
International audienceCatalytic swimmers have attracted much attention as alternatives to biological...
International audienceAmong the few methods which have been proposed to create small-scale swimmers,...
Nonspherical self-propelling colloidal particles offer many possibilities for creating a variety of ...
Self-propelling chemical motors have thus far required the fabrication of Janus particles with an as...
The behaviour of a non-spherical osmotic motor – an axisymmetric catalytic particle self-propelling ...
Colloidal motors with micrometer dimensions and no moving parts can be propelled by self-diffusiopho...
Since their discovery in 2004, chemically self-propelled nanomotors have been studied in the hopes t...
The self-propulsion of artificial and biological microswimmers (or active colloidal particles) has o...
In the presence of an obstacle, active particles condensate into a surface “wetting” layer due to pe...
Micron-sized self-propelled (active) particles can be considered as model systems for characterizing...
We examine a mechanism of locomotion of active particles whose surface is uniformly coated with mobi...
We theoretically study the self-propulsion of a thin (slender) colloid driven by asymmetric chemical...
Asymmetric bimetallic nanomotors are synthesised by seeded growth in solution, providing a convenien...
In addition to self-propulsion by phoretic mechanisms that arises from an asymmetric distribution of...
International audienceIsotropic phoretic particles do not swim individually but can achieve self-pro...
International audienceCatalytic swimmers have attracted much attention as alternatives to biological...
International audienceAmong the few methods which have been proposed to create small-scale swimmers,...
Nonspherical self-propelling colloidal particles offer many possibilities for creating a variety of ...
Self-propelling chemical motors have thus far required the fabrication of Janus particles with an as...
The behaviour of a non-spherical osmotic motor – an axisymmetric catalytic particle self-propelling ...
Colloidal motors with micrometer dimensions and no moving parts can be propelled by self-diffusiopho...
Since their discovery in 2004, chemically self-propelled nanomotors have been studied in the hopes t...
The self-propulsion of artificial and biological microswimmers (or active colloidal particles) has o...
In the presence of an obstacle, active particles condensate into a surface “wetting” layer due to pe...
Micron-sized self-propelled (active) particles can be considered as model systems for characterizing...
We examine a mechanism of locomotion of active particles whose surface is uniformly coated with mobi...
We theoretically study the self-propulsion of a thin (slender) colloid driven by asymmetric chemical...
Asymmetric bimetallic nanomotors are synthesised by seeded growth in solution, providing a convenien...