We report the design and implementation of a new pupil-engineered phase function that enables simple and robust 3D localization microscopy with a ten-fold extension in depth-of-field. Applications include single-particle tracking, super resolution microscopy and lab-on-chip. We demonstrate its application to in vivo mapping of blood flow in zebrafish
International audienceHere, we present a 3D localization-based super-resolution technique providing ...
The spatial resolution of conventional optical microscopy is limited by diffraction to transverse an...
Experimental characterization of blood flow in living organisms is crucial for understanding the dev...
The localization of point sources in optical microscopy enables nm-precision imaging of single-molec...
We present a single-aperture 3D particle localisation and tracking technique with a vastly increased...
We propose an analytical pupil phase function employing cropped secondary astigmatism for extended-d...
A new single-aperture 3D particle-localization and tracking technique is presented that demonstrates...
The precise localization of point emitters in optical microscopy has revolutionized our ability to s...
Capturing the dynamics of live cell populations with nanoscale resolution poses a significant challe...
We present a real-time fitter for 3D single-molecule localization microscopy using experimental poin...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
The point spread function (PSF) of a widefield fluorescence microscope is not suitable for three-dim...
An outstanding challenge in single-molecule localization microscopy is the accurate and precise loca...
International audienceImaging and localizing single molecules with high accuracy in a 3D volume is a...
International audienceHere, we present a 3D localization-based super-resolution technique providing ...
The spatial resolution of conventional optical microscopy is limited by diffraction to transverse an...
Experimental characterization of blood flow in living organisms is crucial for understanding the dev...
The localization of point sources in optical microscopy enables nm-precision imaging of single-molec...
We present a single-aperture 3D particle localisation and tracking technique with a vastly increased...
We propose an analytical pupil phase function employing cropped secondary astigmatism for extended-d...
A new single-aperture 3D particle-localization and tracking technique is presented that demonstrates...
The precise localization of point emitters in optical microscopy has revolutionized our ability to s...
Capturing the dynamics of live cell populations with nanoscale resolution poses a significant challe...
We present a real-time fitter for 3D single-molecule localization microscopy using experimental poin...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
Localization microscopy achieves nanoscale spatial resolution by iterative localization of sparsely ...
The point spread function (PSF) of a widefield fluorescence microscope is not suitable for three-dim...
An outstanding challenge in single-molecule localization microscopy is the accurate and precise loca...
International audienceImaging and localizing single molecules with high accuracy in a 3D volume is a...
International audienceHere, we present a 3D localization-based super-resolution technique providing ...
The spatial resolution of conventional optical microscopy is limited by diffraction to transverse an...
Experimental characterization of blood flow in living organisms is crucial for understanding the dev...