We experimentally demonstrate stable trapping and controlled manipulation of silica microspheres in a structured optical beam consisting of a dark focus surrounded by light in all directions - the so-called Dark Focus Tweezer. Results from power spectrum and potential analysis demonstrate the non-harmonicity of the trapping potential landspace, which is reconstructed from experimental data in agreement to Lorentz-Mie numerical simulations. Applications of the dark tweezer in levitated optomechanics and biophysics are discussed
With a tightly focused single laser beam, also called optical tweezers, particles of a few nanometer...
In this paper, we prove the usefulness of the diffractive optical elements to generate arrays of opt...
Manipulation of micrometer sized particles with optical tweezers can be precisely modeled with elect...
We experimentally demonstrate stable trapping and controlled manipulation of silica microspheres in ...
Manipulation with microscopic objects facilitated deeper understanding of the light-matter interact...
Optical tweezers, formed by a highly focused laser beam, have intriguing applications in biology and...
Optical trapping describes the interaction between light and matter to manipulate micro-objects thro...
This research shows that micro particles can be manipulated via interferometric patterns superimpose...
It is now well known that matter may be trapped by optical fields with high intensity gradients. Onc...
Optical tweezers(1) are commonly used for manipulating microscopic particles, with applications in c...
For optical tweezers, a tiny focal spot of the trapping beam is necessary for providing sufficient i...
We report the first experimental demonstration of an optical trap that uses interference fringes for...
In existing control techniques for optical tweezers, a target particle is directly trapped and manip...
ii Over the last 30 years, the ability to perform controlled manipulation of microscopic particles u...
International audienceParticles manipulation with optical forces is known as optical tweezing. While...
With a tightly focused single laser beam, also called optical tweezers, particles of a few nanometer...
In this paper, we prove the usefulness of the diffractive optical elements to generate arrays of opt...
Manipulation of micrometer sized particles with optical tweezers can be precisely modeled with elect...
We experimentally demonstrate stable trapping and controlled manipulation of silica microspheres in ...
Manipulation with microscopic objects facilitated deeper understanding of the light-matter interact...
Optical tweezers, formed by a highly focused laser beam, have intriguing applications in biology and...
Optical trapping describes the interaction between light and matter to manipulate micro-objects thro...
This research shows that micro particles can be manipulated via interferometric patterns superimpose...
It is now well known that matter may be trapped by optical fields with high intensity gradients. Onc...
Optical tweezers(1) are commonly used for manipulating microscopic particles, with applications in c...
For optical tweezers, a tiny focal spot of the trapping beam is necessary for providing sufficient i...
We report the first experimental demonstration of an optical trap that uses interference fringes for...
In existing control techniques for optical tweezers, a target particle is directly trapped and manip...
ii Over the last 30 years, the ability to perform controlled manipulation of microscopic particles u...
International audienceParticles manipulation with optical forces is known as optical tweezing. While...
With a tightly focused single laser beam, also called optical tweezers, particles of a few nanometer...
In this paper, we prove the usefulness of the diffractive optical elements to generate arrays of opt...
Manipulation of micrometer sized particles with optical tweezers can be precisely modeled with elect...