The electrophoretic motion of two freely-suspended, non-conducting arbitrary coaxial prolate particles of revolution with thin electrical double layers is investigated using the method of internal distribution of singularities. Corrections to the Smoluchowski equation due to particle interactions are determined. The electrophoretic mobilities of two prolate spheroid particles are calculated for different distances of two particles, various ratios of zeta potentials and a variety of parameters of particle shape. It is also found that the electrophoretic particles in our problem do not interact with one another when they have equal surface zeta potentials.MechanicsSCI(E)EI4ARTICLE4705-7142
Electrophoretic motion is analyzed for non-neutrally buoyant, spheroidal particles settling in an un...
The electrophoretic motion of a charged spherical nanoparticle along the axis of a nanopore connecti...
An electrophoresis theory is developed for a rigid sphere in a general nonuniform electric field. Th...
The electrophoretic motion of an arbitrary prolate body of revolution perpendicular to an infinite c...
[[abstract]]Considering recent applications of electrophoresis conduced in nanoscaled devices, where...
The flow field about an electrophoretic body is theoretically investigated by analytical methods. An...
The Smoluchowski equation for electrophoresis predicts that the electrophoretic velocity of a partic...
An initially charged ideally polarizable spherical particle is placed under a uniformly imposed elec...
It has been derived, that the electrophoretic mobility of a randomly oriented charged cylinder is ob...
International audienceParticle-boundary and particle-particle interactions in Electrophoresis are ex...
International audienceThis work presents a new procedure to determine the electrophoretic motion of ...
[[abstract]]The boundary effect in electrophoresis can play an important role in applications of pra...
[[abstract]]Recent advances in material science and technology yield not only various kinds of nano-...
International audienceWe examine the electrophoretic motion of a uniformly charged particle embedded...
The electrophoretic mobility of a cylindrical particle is calculated by combining the solution of th...
Electrophoretic motion is analyzed for non-neutrally buoyant, spheroidal particles settling in an un...
The electrophoretic motion of a charged spherical nanoparticle along the axis of a nanopore connecti...
An electrophoresis theory is developed for a rigid sphere in a general nonuniform electric field. Th...
The electrophoretic motion of an arbitrary prolate body of revolution perpendicular to an infinite c...
[[abstract]]Considering recent applications of electrophoresis conduced in nanoscaled devices, where...
The flow field about an electrophoretic body is theoretically investigated by analytical methods. An...
The Smoluchowski equation for electrophoresis predicts that the electrophoretic velocity of a partic...
An initially charged ideally polarizable spherical particle is placed under a uniformly imposed elec...
It has been derived, that the electrophoretic mobility of a randomly oriented charged cylinder is ob...
International audienceParticle-boundary and particle-particle interactions in Electrophoresis are ex...
International audienceThis work presents a new procedure to determine the electrophoretic motion of ...
[[abstract]]The boundary effect in electrophoresis can play an important role in applications of pra...
[[abstract]]Recent advances in material science and technology yield not only various kinds of nano-...
International audienceWe examine the electrophoretic motion of a uniformly charged particle embedded...
The electrophoretic mobility of a cylindrical particle is calculated by combining the solution of th...
Electrophoretic motion is analyzed for non-neutrally buoyant, spheroidal particles settling in an un...
The electrophoretic motion of a charged spherical nanoparticle along the axis of a nanopore connecti...
An electrophoresis theory is developed for a rigid sphere in a general nonuniform electric field. Th...