Noncontact robotic particle grippers with trapping, manipulation, and release functions are highly desired in cell biology and microfluidics. Optoelectric techniques combine optical and electrokinetic effects to create thousands of such individually addressable traps. By projecting reconfigurable light patterns, these techniques can concentrate molecules, as well as manipulate, sort, and electroporate cells in a programmable manner. We describe the underlying physical mechanisms and discuss applications in biology and future prospects of these devices
Microfluidics, the manipulation of fluid samples on the order of nanoliters and picoliters, is rapid...
We will demonstrate how optical tweezers can be combined with a microfluidic system to create a vers...
In the last decade optical manipulation has evolved from a field of interest for physicists to a ver...
Abstract: Optoelectronic tweezers is a new tool for parallel optical manipulation of colloids and ce...
The main aim of this project was to develop novel concepts for miniaturization of bioanalytical tech...
Since the pioneering work of Ashkin and coworkers, back in 1970, optical manipulation gained an incr...
Since the pioneering work of Ashkin and coworkers, back in 1970, optical manipulation gained an incr...
This paper reports on cell and microparticle manipulation using optically induced dielectrophoresis....
Manipulation devices based on magnetic forces, acoustic waves, hydrodynamic flows, light waves, or e...
This paper presents the integration of two powerful technologies: manipulation of droplets (i.e., di...
Microfluidic techniques for cell manipulation have been constantly developed and integrated into sma...
The introduction of optoelectrokinetics (OEK) into lab-on-a-chip systems has facilitated a new cutti...
Microfluidics, the manipulation of fluid samples on the order of nanoliters and picoliters, is rapid...
We will demonstrate how optical tweezers can be combined with a microfluidic system to create a vers...
In the last decade optical manipulation has evolved from a field of interest for physicists to a ver...
Abstract: Optoelectronic tweezers is a new tool for parallel optical manipulation of colloids and ce...
The main aim of this project was to develop novel concepts for miniaturization of bioanalytical tech...
Since the pioneering work of Ashkin and coworkers, back in 1970, optical manipulation gained an incr...
Since the pioneering work of Ashkin and coworkers, back in 1970, optical manipulation gained an incr...
This paper reports on cell and microparticle manipulation using optically induced dielectrophoresis....
Manipulation devices based on magnetic forces, acoustic waves, hydrodynamic flows, light waves, or e...
This paper presents the integration of two powerful technologies: manipulation of droplets (i.e., di...
Microfluidic techniques for cell manipulation have been constantly developed and integrated into sma...
The introduction of optoelectrokinetics (OEK) into lab-on-a-chip systems has facilitated a new cutti...
Microfluidics, the manipulation of fluid samples on the order of nanoliters and picoliters, is rapid...
We will demonstrate how optical tweezers can be combined with a microfluidic system to create a vers...
In the last decade optical manipulation has evolved from a field of interest for physicists to a ver...