The simultaneous positioning of multiple colloidal particles using optical tweezers is described here. It is illustrated that novel structures of very specific design can be constructed on a microscopic scale (see Figure) and that the structure can be locked in by photopolymerization of the surrounding solvent. Such artificially created surfaces may find applications as lithographic masks or diffraction gratings
In recent years, single-beam optical traps have been used to manipulate individual colloids and biol...
This research shows that micro particles can be manipulated via interferometric patterns superimpose...
We report the first experimental demonstration of an optical trap that uses interference fringes for...
Optical trapping techniques have been used extensively to manipulate biological objects and micromet...
Using a laser beam that is focused down to a diffraction-limited spot, particles with a size ranging...
This chapter reviews the basic physics and design of an optical tweezers system. It shows how the op...
In existing control techniques for optical tweezers, a target particle is directly trapped and manip...
A method and mathematical foundation are presented for generating multiple-beam optical tweezers cap...
In this paper, we prove the usefulness of the diffractive optical elements to generate arrays of opt...
An optical tweezers technique is used for ultraprecise micromanipulation to measure positions of mic...
Optical tweezers(1) are commonly used for manipulating microscopic particles, with applications in c...
Optical tweezers are an important tool in the field of biophysics due to their ability to precisely ...
With a tightly focused single laser beam, also called optical tweezers, particles of a few nanometer...
Although optical tweezers have been a valuable research tool since their invention in the 1980s, the...
We report optical trapping and assembling of colloidal particles at a glass/solution interface with ...
In recent years, single-beam optical traps have been used to manipulate individual colloids and biol...
This research shows that micro particles can be manipulated via interferometric patterns superimpose...
We report the first experimental demonstration of an optical trap that uses interference fringes for...
Optical trapping techniques have been used extensively to manipulate biological objects and micromet...
Using a laser beam that is focused down to a diffraction-limited spot, particles with a size ranging...
This chapter reviews the basic physics and design of an optical tweezers system. It shows how the op...
In existing control techniques for optical tweezers, a target particle is directly trapped and manip...
A method and mathematical foundation are presented for generating multiple-beam optical tweezers cap...
In this paper, we prove the usefulness of the diffractive optical elements to generate arrays of opt...
An optical tweezers technique is used for ultraprecise micromanipulation to measure positions of mic...
Optical tweezers(1) are commonly used for manipulating microscopic particles, with applications in c...
Optical tweezers are an important tool in the field of biophysics due to their ability to precisely ...
With a tightly focused single laser beam, also called optical tweezers, particles of a few nanometer...
Although optical tweezers have been a valuable research tool since their invention in the 1980s, the...
We report optical trapping and assembling of colloidal particles at a glass/solution interface with ...
In recent years, single-beam optical traps have been used to manipulate individual colloids and biol...
This research shows that micro particles can be manipulated via interferometric patterns superimpose...
We report the first experimental demonstration of an optical trap that uses interference fringes for...