The localization of point sources in optical microscopy enables nm-precision imaging of single-molecules and biological dynamics. We report a new method of localization microscopy using twin Airy beams that yields precise 3D localization with the key advantages of extended depth range, higher optical throughput, and potential for imaging higher emitter densities than are possible using other techniques. A precision of better than 30 nm was achieved over a depth range in excess of 7μm using a 60×, 1.4 NA objective. An illustrative application to extended-depth-range blood-flow imaging in a live zebrafish is also demonstrated
Single-Molecule Localization Microscopy is an optical imaging paradigm which provides computational ...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
We present methods to improve the localization accuracy in wide-field 3-D single-molecule double-hel...
The localization of point sources in optical microscopy enables nm-precision imaging of single-molec...
The precise localization of point emitters in optical microscopy has revolutionized our ability to s...
We propose an analytical pupil phase function employing cropped secondary astigmatism for extended-d...
We report the design and implementation of a new pupil-engineered phase function that enables simple...
A new single-aperture 3D particle-localization and tracking technique is presented that demonstrates...
The spatial resolution of conventional optical microscopy is limited by diffraction to transverse an...
We present a single-aperture 3D particle localisation and tracking technique with a vastly increased...
Airy beams maintain their intensity profiles over a large propagation distance without substantial d...
Experimental characterization of blood flow in living organisms is crucial for understanding the dev...
An outstanding challenge in single-molecule localization microscopy is the accurate and precise loca...
International audienceHere, we present a 3D localization-based super-resolution technique providing ...
We describe a method for tracking the position of small features in three dimensions from images rec...
Single-Molecule Localization Microscopy is an optical imaging paradigm which provides computational ...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
We present methods to improve the localization accuracy in wide-field 3-D single-molecule double-hel...
The localization of point sources in optical microscopy enables nm-precision imaging of single-molec...
The precise localization of point emitters in optical microscopy has revolutionized our ability to s...
We propose an analytical pupil phase function employing cropped secondary astigmatism for extended-d...
We report the design and implementation of a new pupil-engineered phase function that enables simple...
A new single-aperture 3D particle-localization and tracking technique is presented that demonstrates...
The spatial resolution of conventional optical microscopy is limited by diffraction to transverse an...
We present a single-aperture 3D particle localisation and tracking technique with a vastly increased...
Airy beams maintain their intensity profiles over a large propagation distance without substantial d...
Experimental characterization of blood flow in living organisms is crucial for understanding the dev...
An outstanding challenge in single-molecule localization microscopy is the accurate and precise loca...
International audienceHere, we present a 3D localization-based super-resolution technique providing ...
We describe a method for tracking the position of small features in three dimensions from images rec...
Single-Molecule Localization Microscopy is an optical imaging paradigm which provides computational ...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
We present methods to improve the localization accuracy in wide-field 3-D single-molecule double-hel...