In this paper, we introduce a horizontally-oriented, photophoretic `boat' trap that is capable of capturing and self-loading large (radius ${\ge}1$ $\mu$m) solid gold particles in air for more than one hour. Once trapped, particles are held stably, even as the trap is modified to scan axially or expanded to a larger size to increase the capture cross-section. We theoretically present and experimentally demonstrate each of these affordances. We describe the utility of such to investigate large, metallic, and plasmonic particles for display applications
Optical tweezers have paved the way towards the manipulation of particles and living cells at the mi...
We report on trapping of single and multiple spherical gold nanoparticles with 60 to 250 nm diameter...
Understanding whether noble-metal nanostructures can be trapped optically and under what conditions ...
Aerosol trapping has proven challenging and was only recently demonstrated. 1 This was accomplished ...
Most progress on optical nanoparticle control has been in liquids, while optical control in air has ...
Optical manipulation of gold nanoparticles has emerged as an exciting avenue for studies in nanother...
We demonstrate stable three-dimensional (3D) single-beam optical trapping of gold nanoparticles with...
In this article, we propose a method for three-dimensional optical trapping of metallic Mie particle...
We performed efficient optical trapping combined with sensitive optical detection of individual silv...
We show how light forces can be used to trap gold nanoaggregates of selected structure and optical p...
We report on the micron-sized light-absorbing particle trapping in two configurations (horizontal an...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
Optical trapping of light-absorbing particles in a gaseous environment is governed by a laser-induce...
In recent years, optical micromachines based on forces exerted by strongly focused beams of light ha...
International audienceOptical tweezers have paved the way towards the manipulation of particles and ...
Optical tweezers have paved the way towards the manipulation of particles and living cells at the mi...
We report on trapping of single and multiple spherical gold nanoparticles with 60 to 250 nm diameter...
Understanding whether noble-metal nanostructures can be trapped optically and under what conditions ...
Aerosol trapping has proven challenging and was only recently demonstrated. 1 This was accomplished ...
Most progress on optical nanoparticle control has been in liquids, while optical control in air has ...
Optical manipulation of gold nanoparticles has emerged as an exciting avenue for studies in nanother...
We demonstrate stable three-dimensional (3D) single-beam optical trapping of gold nanoparticles with...
In this article, we propose a method for three-dimensional optical trapping of metallic Mie particle...
We performed efficient optical trapping combined with sensitive optical detection of individual silv...
We show how light forces can be used to trap gold nanoaggregates of selected structure and optical p...
We report on the micron-sized light-absorbing particle trapping in two configurations (horizontal an...
Optical trapping is an established field for movement of micron-size objects and cells. However, tra...
Optical trapping of light-absorbing particles in a gaseous environment is governed by a laser-induce...
In recent years, optical micromachines based on forces exerted by strongly focused beams of light ha...
International audienceOptical tweezers have paved the way towards the manipulation of particles and ...
Optical tweezers have paved the way towards the manipulation of particles and living cells at the mi...
We report on trapping of single and multiple spherical gold nanoparticles with 60 to 250 nm diameter...
Understanding whether noble-metal nanostructures can be trapped optically and under what conditions ...