Open Access
9 March 2023 Temporal compressive super-resolution microscopy at frame rate of 1200 frames per second and spatial resolution of 100 nm
Author Affiliations +
Fig. 1
Theoretical model of TCSRM. (a) Image acquisition flowchart of TCSRM. (b) Image reconstruction framework of TCSRM.

Fig. 2
Simulation result of moving nanorings by TCSRM. (a) Compressed image and reference image measured by two channels in TCSRM. (b) GT and TCSRM images for six consecutive frames. The moving trajectories of the nanorings are labeled with green lines. (c) Motion traces of the three nanorings in the whole scene from GT (lines) and reconstructed result by TCSRM (circles, squares, and rhombuses). (d) Radial intensity distributions of the nanorings along the white line in the reference, GT, and TCSRM images (Video 1, mp4, 845 KB [URL: https://doi.org/10.1117/1.AP.5.2.026003.s1]).

Fig. 3
Experimental design of TCSRM. BE: beam expander; L: lens; DM: dichromatic mirror; OL: objective lens; DMD: digital micromirror device.

Fig. 4
Experimental result of flowing fluorescent bead in microchannel by TCSRM. (a) Compressed and reference images recorded by two cameras. (b) Reconstructed images by TCSRM. The trajectory of the moving bead is marked with white dashed lines. (c) and (d) Intensity distributions of the fluorescent bead along the horizontal and vertical directions in the reference image and the first frame in TCSRM images (Video 2, mp4, 89.7 KB [URL: https://doi.org/10.1117/1.AP.5.2.026003.s2]).

Lens.org Logo
CITATIONS
Cited by 3 scholarly publications.
Advertisement
Advertisement
KEYWORDS
Image restoration

Super resolution

Image compression

Biological imaging

Super resolution microscopy

Biomedical optics

Microscopy

Back to Top