• Laser & Optoelectronics Progress
  • Vol. 57, Issue 12, 120001 (2020)
Lixin Liu1、2、*, Meiling Zhang1, Zhaoqing Wu1, Qianqian Yang1, Peng Gao1, and Ping Xue3
Author Affiliations
  • 1School of Physics and Optoelectronic Engineering, Xidian University, Xi'an, Shaanxi 710071, China
  • 2State Key Laboratory of Transient Optics and Photonics, Xi'an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi'an, Shaanxi 710119, China
  • 3State Key Laboratory of Low-Dimensional Quantum Physics, Department of Physics, Tsinghua University, Beijing 100084, China
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    DOI: 10.3788/LOP57.120001 Cite this Article Set citation alerts
    Lixin Liu, Meiling Zhang, Zhaoqing Wu, Qianqian Yang, Peng Gao, Ping Xue. Application of Adaptive Optics in Fluorescence Microscope[J]. Laser & Optoelectronics Progress, 2020, 57(12): 120001 Copy Citation Text show less
    Structure of typical adaptive optical system[19]
    Fig. 1. Structure of typical adaptive optical system[19]
    AO wide-field microscope system and comparison of wide-field images before and after AO correction[23]. (a) Schematic of AO wide-field microscope system based on SHWS, fluorescent beads, and DM; (b) wide-field images of green fluorescent beads before and after AO correction
    Fig. 2. AO wide-field microscope system and comparison of wide-field images before and after AO correction[23]. (a) Schematic of AO wide-field microscope system based on SHWS, fluorescent beads, and DM; (b) wide-field images of green fluorescent beads before and after AO correction
    Conjugate AO wide-field microscope system and comparison of images before and after AO correction. (a) Schematic of PAW-based conjugate AO wide-field microscope system[26]; (b) fluorescence images of aberrated fluorescently-labeled mouse kidney section without and with conjugate AO correction[27]
    Fig. 3. Conjugate AO wide-field microscope system and comparison of images before and after AO correction. (a) Schematic of PAW-based conjugate AO wide-field microscope system[26]; (b) fluorescence images of aberrated fluorescently-labeled mouse kidney section without and with conjugate AO correction[27]
    AOSIM system and comparison of images before and after AO correction[33]. (a) Schematic of woofer-tweeter AOSIM system; (b) wide field and SIM images of GFP-labeled aCC/RP2 motoneurons of a Drosophila embryo before and after AO correction
    Fig. 4. AOSIM system and comparison of images before and after AO correction[33]. (a) Schematic of woofer-tweeter AOSIM system; (b) wide field and SIM images of GFP-labeled aCC/RP2 motoneurons of a Drosophila embryo before and after AO correction
    Schematics of two AO single molecule location microscope systems. (a) Schematic of AO-PALM system based on WFS and DM[35]; (b) schematic of wavefront sensorless feedback AO single molecule switch microscope based on DM and image sharpness measurement[37]
    Fig. 5. Schematics of two AO single molecule location microscope systems. (a) Schematic of AO-PALM system based on WFS and DM[35]; (b) schematic of wavefront sensorless feedback AO single molecule switch microscope based on DM and image sharpness measurement[37]
    Aberration correction of microtubules by AO-STORM system based on search algorithm. (a) Aberration correction using GA-based AO-STORM system on microtubules of hepG2 cell[39]; (b) aberration correction using PSO-based AO-STORM system on microtubules of Hela cell[40]
    Fig. 6. Aberration correction of microtubules by AO-STORM system based on search algorithm. (a) Aberration correction using GA-based AO-STORM system on microtubules of hepG2 cell[39]; (b) aberration correction using PSO-based AO-STORM system on microtubules of Hela cell[40]
    AO confocal microscope system and comparison of images before and after AO correction[42]. (a) Schematic of AO confocal fluorescence microscope based on SHWS, fluorescent beads, and DM; (b) confocal fluorescence images through 100 μm thick mouse brain tissue before and after AO correction
    Fig. 7. AO confocal microscope system and comparison of images before and after AO correction[42]. (a) Schematic of AO confocal fluorescence microscope based on SHWS, fluorescent beads, and DM; (b) confocal fluorescence images through 100 μm thick mouse brain tissue before and after AO correction
    Schematic of wavefront sensorless AO confocal fluorescence microscope based on DM and SPGD algorithm[46]
    Fig. 8. Schematic of wavefront sensorless AO confocal fluorescence microscope based on DM and SPGD algorithm[46]
    Schematic of DAO confocal microscope based on guide star hologram[52]
    Fig. 9. Schematic of DAO confocal microscope based on guide star hologram[52]
    Aberration measurement by confocal microscope[53]. (a) Pupil segmentation on SLM; (b) interference patterns generated by focusing light from two selected circular segments
    Fig. 10. Aberration measurement by confocal microscope[53]. (a) Pupil segmentation on SLM; (b) interference patterns generated by focusing light from two selected circular segments
    AO two-photon microscope system and comparison of images before and after AO correction[57]. (a) Schematic of AO two-photon microscope based on SHWS and open-loop control; (b) two-photon images of live Drosophila embryo at depth of 51 μm before and after AO correction
    Fig. 11. AO two-photon microscope system and comparison of images before and after AO correction[57]. (a) Schematic of AO two-photon microscope based on SHWS and open-loop control; (b) two-photon images of live Drosophila embryo at depth of 51 μm before and after AO correction
    Schematics of two AO-STED microscope systems. (a) Schematic of AO-STED system using two SLMs for aberration correction[62]; (b) schematic of AO-STED system using DM and SLM for aberration correction[63]
    Fig. 12. Schematics of two AO-STED microscope systems. (a) Schematic of AO-STED system using two SLMs for aberration correction[62]; (b) schematic of AO-STED system using DM and SLM for aberration correction[63]
    Annular focal spots[66]. (a) Before aberration compensation; (b) after aberration compensation
    Fig. 13. Annular focal spots[66]. (a) Before aberration compensation; (b) after aberration compensation
    Lixin Liu, Meiling Zhang, Zhaoqing Wu, Qianqian Yang, Peng Gao, Ping Xue. Application of Adaptive Optics in Fluorescence Microscope[J]. Laser & Optoelectronics Progress, 2020, 57(12): 120001
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