Unknown

Dataset Information

0

Propagating-path uniformly scanned light sheet excitation microscopy for isotropic volumetric imaging of large specimens.


ABSTRACT: We demonstrate a propagating-path uniformly scanned light sheet excitation (PULSE) microscopy based on the oscillation of voice coil motor that can rapidly drive a thin light sheet along its propagation direction. By synchronizing the rolling shutter of a camera with the motion of laser sheet, we can obtain a uniform plane-illuminated image far beyond the confocal range of Gaussian beam. A stable 1.7-?m optical sectioning under a 3.3??mm??×??3.3??mm wide field of view (FOV) has been achieved for up to 20 Hz volumetric imaging of large biological specimens. PULSE method transforms the extent of plane illumination from one intrinsically limited by the short confocal range (?m scale) to one defined by the motor oscillation range (mm scale). Compared to the conventional Gaussian light sheet imaging, our method greatly mitigates the compromise of axial resolution and successfully extends the FOV over 100 times. We demonstrate the applications of PULSE method by rapidly imaging cleared mouse spinal cord and live zebrafish larva at isotropic subcellular resolution.

SUBMITTER: Ping J 

PROVIDER: S-EPMC6983483 | biostudies-literature | 2019 Aug

REPOSITORIES: biostudies-literature

altmetric image

Publications

Propagating-path uniformly scanned light sheet excitation microscopy for isotropic volumetric imaging of large specimens.

Ping Junyu J   Zhao Fang F   Nie Jun J   Yu Tingting T   Zhu Dan D   Liu Mugen M   Fei Peng P  

Journal of biomedical optics 20190801 8


We demonstrate a propagating-path uniformly scanned light sheet excitation (PULSE) microscopy based on the oscillation of voice coil motor that can rapidly drive a thin light sheet along its propagation direction. By synchronizing the rolling shutter of a camera with the motion of laser sheet, we can obtain a uniform plane-illuminated image far beyond the confocal range of Gaussian beam. A stable 1.7-μm optical sectioning under a 3.3  mm  ×  3.3  mm wide field of view (FOV) has been achieved for  ...[more]

Similar Datasets

| S-EPMC4816690 | biostudies-literature
| S-EPMC6141597 | biostudies-literature
| S-EPMC5570909 | biostudies-literature
| S-EPMC6924633 | biostudies-literature
| S-EPMC7263705 | biostudies-literature
| S-EPMC10111370 | biostudies-literature
| S-EPMC9178036 | biostudies-literature
| S-EPMC4206304 | biostudies-other
| S-EPMC4418465 | biostudies-literature
| S-EPMC10462670 | biostudies-literature