Colloidal gold spheres of radius 10 nm are reported to move forward in water, under the influence of radiation pressure forces, due to the evanescent field at the surface of an optical channel waveguide. The velocity is linearly dependent upon the optical power in the waveguide, acquiring a maximum velocity of 4 µm/s for modal power of 500 mW in the TM polarization at a wavelength of = 1.047 µm
Finite-difference time-domain simulations show direct evidence of optical pulse propagation below th...
The effect of electrostatic interaction between carboxylate- and amino-functionalized polystyrene pa...
Specialized electromagnetic fields can be used for nanoparticle manipulation along a specific path, ...
A theoretical and experimental study on the optical trapping and propulsion of latex, gold aggregate...
We report on the optimization of a waveguide structure for the maximization of the radiation forces ...
The optimization of potassium ion-exchanged optical waveguides in glass for evanescent field propuls...
The velocity distributions of 250nm diameter gold nanospheres trapped in the evanescent fields of op...
International audienceWe have observed the motion of metallic particles above various optical wavegu...
The trapping of microparticles by optical methods using a focussed laser beam, known as optical twee...
In a dielectric waveguide, the optical power is confined mostly in the core of the waveguide, where ...
We experimentally demonstrate guiding of a low-power probe beam (633 nm wavelength) by means of a li...
Herein, we report the optical trapping and directional transport of nanoparticles in an aqueous solu...
Over the last few years, the notion that links optical trapping with strong intensity of light (high...
Optofluidics: Light forces for controlling heat nanosources and fluid flows New opportunities for co...
The evanescent field of sub-micron optical wires has been found to extend for longer distances when ...
Finite-difference time-domain simulations show direct evidence of optical pulse propagation below th...
The effect of electrostatic interaction between carboxylate- and amino-functionalized polystyrene pa...
Specialized electromagnetic fields can be used for nanoparticle manipulation along a specific path, ...
A theoretical and experimental study on the optical trapping and propulsion of latex, gold aggregate...
We report on the optimization of a waveguide structure for the maximization of the radiation forces ...
The optimization of potassium ion-exchanged optical waveguides in glass for evanescent field propuls...
The velocity distributions of 250nm diameter gold nanospheres trapped in the evanescent fields of op...
International audienceWe have observed the motion of metallic particles above various optical wavegu...
The trapping of microparticles by optical methods using a focussed laser beam, known as optical twee...
In a dielectric waveguide, the optical power is confined mostly in the core of the waveguide, where ...
We experimentally demonstrate guiding of a low-power probe beam (633 nm wavelength) by means of a li...
Herein, we report the optical trapping and directional transport of nanoparticles in an aqueous solu...
Over the last few years, the notion that links optical trapping with strong intensity of light (high...
Optofluidics: Light forces for controlling heat nanosources and fluid flows New opportunities for co...
The evanescent field of sub-micron optical wires has been found to extend for longer distances when ...
Finite-difference time-domain simulations show direct evidence of optical pulse propagation below th...
The effect of electrostatic interaction between carboxylate- and amino-functionalized polystyrene pa...
Specialized electromagnetic fields can be used for nanoparticle manipulation along a specific path, ...