• Acta Optica Sinica
  • Vol. 39, Issue 1, 0126010 (2019)
Runfeng Li1、* and Kebin Shi1、2、*
Author Affiliations
  • 1 State Key Laboratory for Artificial Microstructure and Mesoscopic Physics, School of Physics, Peking University, Beijing 100871, China
  • 2 Collaborative Innovation Center of Extreme Optics, Shanxi University, Taiyuan, Shanxi 0 30006, China
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    DOI: 10.3788/AOS201939.0126010 Cite this Article Set citation alerts
    Runfeng Li, Kebin Shi. High Spatiotemporal Imaging Based on Optical Field Engineering[J]. Acta Optica Sinica, 2019, 39(1): 0126010 Copy Citation Text show less
    Principle of STORM, PALM, and FPALM[17]
    Fig. 1. Principle of STORM, PALM, and FPALM[17]
    Schematic and images of 3D-STORM[19]. (a) Scheme of 3D-STORM structure; (b) 3D-STORM image(z-direction depth is represented by color); (c)-(e) x-y, (d) x-z, (e) y-z cross-sections of the cell outlined in 3D-STORM image
    Fig. 2. Schematic and images of 3D-STORM[19]. (a) Scheme of 3D-STORM structure; (b) 3D-STORM image(z-direction depth is represented by color); (c)-(e) x-y, (d) x-z, (e) y-z cross-sections of the cell outlined in 3D-STORM image
    Scheme of dual-objective STORM[29]
    Fig. 3. Scheme of dual-objective STORM[29]
    Principle diagram of time-frequency mapping imaging
    Fig. 4. Principle diagram of time-frequency mapping imaging
    Images of mouse C2C12 cells[40]. (a) Conventional wide-field image; (b) 3D-SIM image
    Fig. 5. Images of mouse C2C12 cells[40]. (a) Conventional wide-field image; (b) 3D-SIM image
    Diagram of the principle of SIM[38-39]
    Fig. 6. Diagram of the principle of SIM[38-39]
    SIM image and (b) SMLM image of HEK293 cells; (c) details corresponding to Fig.7(a); (d) details corresponding to Fig.7(b); (e) imaging effect of combination of SIM and SMLM[51]
    Fig. 7. SIM image and (b) SMLM image of HEK293 cells; (c) details corresponding to Fig.7(a); (d) details corresponding to Fig.7(b); (e) imaging effect of combination of SIM and SMLM[51]
    Scheme of SPIM[55]
    Fig. 8. Scheme of SPIM[55]
    Schematic diagram of DSLM[6]
    Fig. 9. Schematic diagram of DSLM[6]
    Schematic diagram of RSLM[57]
    Fig. 10. Schematic diagram of RSLM[57]
    Super resolution principle of STED[66]. (a) Molecules transition; (b) position of the donut center (green), under STED illumination (red); (c) for intensities of the STED light (red) equaling or in excess of the threshold intensity Is, molecules are effectively switched “off”
    Fig. 11. Super resolution principle of STED[66]. (a) Molecules transition; (b) position of the donut center (green), under STED illumination (red); (c) for intensities of the STED light (red) equaling or in excess of the threshold intensity Is, molecules are effectively switched “off”
    STED nanoscopy in living mouse brain and local enlarged image[70]
    Fig. 12. STED nanoscopy in living mouse brain and local enlarged image[70]
    3D-STED nanoscopy of a living hippocampal brain slice (mouse) [78]
    Fig. 13. 3D-STED nanoscopy of a living hippocampal brain slice (mouse) [78]
    114000 “donuts” recorded by RESOLFT nanoscopy within two seconds[86]
    Fig. 14. 114000 “donuts” recorded by RESOLFT nanoscopy within two seconds[86]
    Schematic of SPoD[11]
    Fig. 15. Schematic of SPoD[11]
    Schematic of SDOM[97]
    Fig. 16. Schematic of SDOM[97]
    Setup of polar-dSTORM [12]
    Fig. 17. Setup of polar-dSTORM [12]