We show that the photonic confinement induced by a photonic crystal can be exploited to trap nanoparticles. As demonstrated by the recent advances in the design and fabrication of photonic crystals slab structures, total internal reflection and multiple scattering can be combined to confine photons very efficiently. A consequence of this confinement is the existence of strong gradients of electromagnetic intensity in the near-field of the photonic structure. Hence, a nanoparticle placed in the vicinity of the crystal would experience an optical force which, with a proper design of the near-field optical landscape, can lead to trapping.6 page(s
Photonic crystal (PhC) devices owing to their strong confinement of electromagnetic energy are consi...
The optomechanical coupling between a resonant optical field and a nanoparticle through trapping for...
Very high frequency oscillations of intense light fields interact with micron-size dielectric object...
We show that the photonic confinement induced by a photonic crystal can be exploited to trap nanopar...
We design and numerically simulate a photonic crystal waveguide cavity with a nanoslot structure for...
International audienceIn this work, we report the auto-assembly experiments of micrometer sized part...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
ABSTRACT Optical tweezers1 have enabled a number of microscale processes such as single cell handlin...
A photonic crystal (PC) structure for trapping a 50nm radius dielectric particle at a precise locati...
We consider the interaction between a single rubidium atom and a photonic crystal nanocavity. Becaus...
We investigate the use of a hybrid nanoresonator comprising a photonic crystal (PhC) cavity coupled ...
Optical trapping of individual particles is believed to be only effective under highly focused beams...
When combined with high index contrast slabs in which light can be efficiently guided, micro-fabrica...
We present a structure combing a photonic crystal cavity with a plasmonic bowtie nanoantenna produci...
The dual beam counterpropagating optical trap has found increased use in studies such as optical str...
Photonic crystal (PhC) devices owing to their strong confinement of electromagnetic energy are consi...
The optomechanical coupling between a resonant optical field and a nanoparticle through trapping for...
Very high frequency oscillations of intense light fields interact with micron-size dielectric object...
We show that the photonic confinement induced by a photonic crystal can be exploited to trap nanopar...
We design and numerically simulate a photonic crystal waveguide cavity with a nanoslot structure for...
International audienceIn this work, we report the auto-assembly experiments of micrometer sized part...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
ABSTRACT Optical tweezers1 have enabled a number of microscale processes such as single cell handlin...
A photonic crystal (PC) structure for trapping a 50nm radius dielectric particle at a precise locati...
We consider the interaction between a single rubidium atom and a photonic crystal nanocavity. Becaus...
We investigate the use of a hybrid nanoresonator comprising a photonic crystal (PhC) cavity coupled ...
Optical trapping of individual particles is believed to be only effective under highly focused beams...
When combined with high index contrast slabs in which light can be efficiently guided, micro-fabrica...
We present a structure combing a photonic crystal cavity with a plasmonic bowtie nanoantenna produci...
The dual beam counterpropagating optical trap has found increased use in studies such as optical str...
Photonic crystal (PhC) devices owing to their strong confinement of electromagnetic energy are consi...
The optomechanical coupling between a resonant optical field and a nanoparticle through trapping for...
Very high frequency oscillations of intense light fields interact with micron-size dielectric object...