• Laser & Optoelectronics Progress
  • Vol. 58, Issue 10, 1011012 (2021)
Wenwen Li1、2 and Zhongyang Wang1、*
Author Affiliations
  • 1Center for Fundamental Interdisciplinary Research, Shanghai Advanced Research Institute, Chinese Academy of Sciences, Shanghai 201210, China
  • 2School of Microelectronics, University of Chinese Academy of Sciences, Beijing 100049, China
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    DOI: 10.3788/LOP202158.1011012 Cite this Article Set citation alerts
    Wenwen Li, Zhongyang Wang. Research Progress of Super-Resolution Fluorescence Microscopy Based on Quantum Correlation[J]. Laser & Optoelectronics Progress, 2021, 58(10): 1011012 Copy Citation Text show less
    Principle diagram of STED technology[5]
    Fig. 1. Principle diagram of STED technology[5]
    Principle diagram of STORM technology[5]. (a) Principle diagram of STORM imaging; (b) process image of STORM imaging
    Fig. 2. Principle diagram of STORM technology[5]. (a) Principle diagram of STORM imaging; (b) process image of STORM imaging
    Principle diagram of SIM technology[5]
    Fig. 3. Principle diagram of SIM technology[5]
    Experimental principle diagram of single photon source judgement [24]. (a) HBT interference experiment; (b) HOM interference experiment
    Fig. 4. Experimental principle diagram of single photon source judgement [24]. (a) HBT interference experiment; (b) HOM interference experiment
    Principle diagram of super-resolution fluorescence microscopy based on antibunching
    Fig. 5. Principle diagram of super-resolution fluorescence microscopy based on antibunching
    Application of super-resolution fluorescence microscopy based on antibunching in confocal microscopy and wide field microscopy, respectively. (a) Confocal microscopy[52];(b) wide-field microscopy[61]
    Fig. 6. Application of super-resolution fluorescence microscopy based on antibunching in confocal microscopy and wide field microscopy, respectively. (a) Confocal microscopy[52];(b) wide-field microscopy[61]
    Experimental setup and results of GISC camera [75]. (a) Experimental setup of GISC camera; (b) reconstruction results of spectral images
    Fig. 7. Experimental setup and results of GISC camera [75]. (a) Experimental setup of GISC camera; (b) reconstruction results of spectral images
    Principle diagram of GISC-Nanoscopy technology
    Fig. 8. Principle diagram of GISC-Nanoscopy technology
    Experimental setup and results of GISC-Nanoscopy[83]. (a) Experimental setup of GISC-Nanoscopy; (b) super-resolution imaging of ring with 80 nm spacing; (c) super-resolution imaging of DNA nanometer ruler with 160 nm spacing
    Fig. 9. Experimental setup and results of GISC-Nanoscopy[83]. (a) Experimental setup of GISC-Nanoscopy; (b) super-resolution imaging of ring with 80 nm spacing; (c) super-resolution imaging of DNA nanometer ruler with 160 nm spacing
    Results of GISC-STORM[83]. (a) Comparison between original position and reconstructed position of simulated fluorescent molecules at density of 50.7 μm-2; (b) ability to identify molecular densities at different SNRs; (c) localization precision of molecules at different SNRs and densities; (d) diffraction-limited wide field image of ring with 60 nm spacing; (e)--(h) sampling frames of ThunderSTORM, CS-STORM and GISC-STORM for resolving ring with 60 nm spacing
    Fig. 10. Results of GISC-STORM[83]. (a) Comparison between original position and reconstructed position of simulated fluorescent molecules at density of 50.7 μm-2; (b) ability to identify molecular densities at different SNRs; (c) localization precision of molecules at different SNRs and densities; (d) diffraction-limited wide field image of ring with 60 nm spacing; (e)--(h) sampling frames of ThunderSTORM, CS-STORM and GISC-STORM for resolving ring with 60 nm spacing
    Wenwen Li, Zhongyang Wang. Research Progress of Super-Resolution Fluorescence Microscopy Based on Quantum Correlation[J]. Laser & Optoelectronics Progress, 2021, 58(10): 1011012
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