We demonstrate a rapid generation of twin opposing microvortices (TOMVs) induced by non-uniform alternating current (AC) electric fields together with a laser beam on a patterned pair of indium tin oxide (ITO) electrodes. A fast and strong jet flow region between twin microvortices is also generated. Its pattern and direction, such as whether it is symmetric or asymmetric, are controlled mainly by the location of a single laser spot relative to the ITO electrodes. With two laser beams, two separate flows are superposed to give a new one. In situ generation and control of the TOMV flow are tested in suspensions of fluorescent polystyrene particles, as well as in milk emulsions. This technique has great potential for dynamically manipulating ...
The development of microfluidic devices is still hindered by the lack of robust fundamental building...
We describe a quantitative study of vortex generation due to non-equilibrium electrokinetics near a ...
We present an approach for the accumulation and filtering of nano- and microparticles in microfluidi...
A novel technique for the microvortex flow in an opto-electrokinetic microfluidic platform is presen...
Strong microfluidic vortices are generated when a near-infrared (1,064 nm) laser beam is focused wit...
The realm of microfluidics deals with the study, control and manipulation of fluids that are geometr...
Classically, the configuration of electrodes (conductors) is used as a means to determine AC-electro...
This fluid dynamics video will illustrate an optically induced electrokinetic technique for non-inva...
The rapid electrokinetic patterning (REP) technique has been demonstrated to enable dynamic particle...
This report introduces a novel optically induced AC electrokinetic technique that generates microflu...
In this study, we make use of the AC field-effect flow control on induced-charge electroosmosis (ICE...
The heating produced by a focused laser has been shown to provide a range of manipulation tools on d...
Abstract — We present a novel light-actuated ac electroosmosis (LACE) mechanism allowing concentrati...
The dominance of surface tension and viscous effects over body forces such as inertia, gravity or ce...
We demonstrate an opto-electrokinetic technique for noninvasive particle manipulation on the surface...
The development of microfluidic devices is still hindered by the lack of robust fundamental building...
We describe a quantitative study of vortex generation due to non-equilibrium electrokinetics near a ...
We present an approach for the accumulation and filtering of nano- and microparticles in microfluidi...
A novel technique for the microvortex flow in an opto-electrokinetic microfluidic platform is presen...
Strong microfluidic vortices are generated when a near-infrared (1,064 nm) laser beam is focused wit...
The realm of microfluidics deals with the study, control and manipulation of fluids that are geometr...
Classically, the configuration of electrodes (conductors) is used as a means to determine AC-electro...
This fluid dynamics video will illustrate an optically induced electrokinetic technique for non-inva...
The rapid electrokinetic patterning (REP) technique has been demonstrated to enable dynamic particle...
This report introduces a novel optically induced AC electrokinetic technique that generates microflu...
In this study, we make use of the AC field-effect flow control on induced-charge electroosmosis (ICE...
The heating produced by a focused laser has been shown to provide a range of manipulation tools on d...
Abstract — We present a novel light-actuated ac electroosmosis (LACE) mechanism allowing concentrati...
The dominance of surface tension and viscous effects over body forces such as inertia, gravity or ce...
We demonstrate an opto-electrokinetic technique for noninvasive particle manipulation on the surface...
The development of microfluidic devices is still hindered by the lack of robust fundamental building...
We describe a quantitative study of vortex generation due to non-equilibrium electrokinetics near a ...
We present an approach for the accumulation and filtering of nano- and microparticles in microfluidi...