We demonstrate a three dimensional nanoparticle trapping approach aided by the surface plasmon resonance of metallic nanostructures. The localized surface plasmon resonance effect provides strong electromagnetic field enhancement, which enables confinement of nanoparticles in the three-dimensional space. Numerical simulations indicate that the plasmonic structure provides approximately two orders of magnitude stronger optical forces for trapping nanoparticles, compared with that without nanostructures. The study of thermal effect of the plasmonic structure shows that the impact of the thermal force is significant, which may determine the outcome of the nanoparticle trapping
The confinement and controlled movement of metal nanoparticles and nanorods is an emergent area with...
International audienceControlling the transport, trapping, and filtering of nanoparticles is importa...
Plasmonic resonators are nanosized metallic antennas that convert electromagnetic waves at optical f...
We present a detailed analysis of nanoparticle trapping using plasmonic nanostructures, which predic...
Plasmon-enhanced particle trapping was demonstrated using a hybrid structure of nanoparticles and na...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Optical trapping of metal nanoparticles investigates phenomena at the interface of plasmonics and op...
The utilization of the enhanced local field near trapped metallic nanoparticles due to surface-plasm...
Controlled trapping of light absorbing nanoparticles with low-power optical tweezers is crucial for ...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
This work focuses on trapping subwavelength objects using resonant plasmonic structures. Trapping en...
The precise noninvasive optical manipulation of nanometer-sized particles by evanescent fields, inst...
Highly bounding light at metal surface by localized surface plasmon resonance (LSPR) improves the op...
This Perspective describes recent progress in optical trappings of nanoparticles based on localized ...
The confinement and controlled movement of metal nanoparticles and nanorods is an emergent area with...
International audienceControlling the transport, trapping, and filtering of nanoparticles is importa...
Plasmonic resonators are nanosized metallic antennas that convert electromagnetic waves at optical f...
We present a detailed analysis of nanoparticle trapping using plasmonic nanostructures, which predic...
Plasmon-enhanced particle trapping was demonstrated using a hybrid structure of nanoparticles and na...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Optical trapping of metal nanoparticles investigates phenomena at the interface of plasmonics and op...
The utilization of the enhanced local field near trapped metallic nanoparticles due to surface-plasm...
Controlled trapping of light absorbing nanoparticles with low-power optical tweezers is crucial for ...
Optical trapping using focused laser beams (laser tweezers) has been proven to be extremely useful f...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
This work focuses on trapping subwavelength objects using resonant plasmonic structures. Trapping en...
The precise noninvasive optical manipulation of nanometer-sized particles by evanescent fields, inst...
Highly bounding light at metal surface by localized surface plasmon resonance (LSPR) improves the op...
This Perspective describes recent progress in optical trappings of nanoparticles based on localized ...
The confinement and controlled movement of metal nanoparticles and nanorods is an emergent area with...
International audienceControlling the transport, trapping, and filtering of nanoparticles is importa...
Plasmonic resonators are nanosized metallic antennas that convert electromagnetic waves at optical f...