An optical tweezer setup is made based on a custom-designed inverted microscope, which can work both in finite and infinite tube length microscopy modes. It is shown that the spherical aberration due to the mismatch in the refractive indices of the specimen (water) and the immersion oil as well as the wavelength can be partially compensated by introducing another source for the spherical aberration provided it has the opposite sign. Changing the tube length is shown to be a good candidate for this effect: an improvement of up to a factor of four has been observed in the lateral efficiency of the trap. © 2005 Elsevier B.V. All rights reserved
Standard optical tweezers are often built as inverted microscopes consisting of reflective, diffract...
Optical aberration due to the nonflatness of spatial light modulators used in holographic optical tw...
For optical tweezers, especially when used in biological studies, optimizing the trapping efficiency...
An optical tweezer setup is made based on a custom-designed inverted microscope, which can work both...
Maximum trapping efficiency in optical tweezers occurs close to the coverslip because spherical aber...
In optical trapping systems the trap stiffness, or spring constant, deteriorates dramatically with t...
Since the first demonstrations of optical trapping, both theoretical and experimental parts of this ...
We report on the limitations of using a spatial light modulator (SLM) within optical tweezers to pro...
AbstractOptical tweezers have revolutionized our understanding of the microscopic world. Axial optic...
Optical traps (tweezers) are beginning to be used with increasing efficacy in diverse studies in the...
Within inverted optical tweezers we measure both the lateral and axial trapping efficiency obtained ...
Optical traps (tweezers) are beginning to be used with increasing efficacy in diverse studies in the...
Optical trapping is a highly dexterous method of manipulating and interrogating nano- and micro-comp...
<div><p>Advances in light shaping techniques are leading to new tools for optical trapping and micro...
Optical tweezers are now a widespread tool based on three-dimensional trapping by a tightly focused ...
Standard optical tweezers are often built as inverted microscopes consisting of reflective, diffract...
Optical aberration due to the nonflatness of spatial light modulators used in holographic optical tw...
For optical tweezers, especially when used in biological studies, optimizing the trapping efficiency...
An optical tweezer setup is made based on a custom-designed inverted microscope, which can work both...
Maximum trapping efficiency in optical tweezers occurs close to the coverslip because spherical aber...
In optical trapping systems the trap stiffness, or spring constant, deteriorates dramatically with t...
Since the first demonstrations of optical trapping, both theoretical and experimental parts of this ...
We report on the limitations of using a spatial light modulator (SLM) within optical tweezers to pro...
AbstractOptical tweezers have revolutionized our understanding of the microscopic world. Axial optic...
Optical traps (tweezers) are beginning to be used with increasing efficacy in diverse studies in the...
Within inverted optical tweezers we measure both the lateral and axial trapping efficiency obtained ...
Optical traps (tweezers) are beginning to be used with increasing efficacy in diverse studies in the...
Optical trapping is a highly dexterous method of manipulating and interrogating nano- and micro-comp...
<div><p>Advances in light shaping techniques are leading to new tools for optical trapping and micro...
Optical tweezers are now a widespread tool based on three-dimensional trapping by a tightly focused ...
Standard optical tweezers are often built as inverted microscopes consisting of reflective, diffract...
Optical aberration due to the nonflatness of spatial light modulators used in holographic optical tw...
For optical tweezers, especially when used in biological studies, optimizing the trapping efficiency...