• Chinese Journal of Lasers
  • Vol. 49, Issue 5, 0507205 (2022)
Xiliang Luo1、2, Zhou Zhou1、2, Jiangfeng Huang1、2, Xiangjiang Dong1、2, Gang Zheng3、*, and Ling Fu1、2
Author Affiliations
  • 1Britton Chance Center for Biomedical Photonics, Wuhan National Laboratory for Optoelectronics, Huazhong University of Science and Technology, Wuhan, Hubei 430074, China
  • 2MoE Key Laboratory for Biomedical Photonics, School of Engineering Sciences, Huazhong University of Science and Technology, Wuhan, Hubei 430074, China
  • 3School of Electronic Information and Communications, Huazhong University of Science and Technology, Wuhan, Hubei 430074, China
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    DOI: 10.3788/CJL202249.0507205 Cite this Article Set citation alerts
    Xiliang Luo, Zhou Zhou, Jiangfeng Huang, Xiangjiang Dong, Gang Zheng, Ling Fu. Resolution Evaluation Method and Applications of 3D Microscopic Images[J]. Chinese Journal of Lasers, 2022, 49(5): 0507205 Copy Citation Text show less
    Flow chart of FRC resolution calculation
    Fig. 1. Flow chart of FRC resolution calculation
    Working principle diagram of sFSC method’s shell selector. (a) Selector model parameters in spatial diagram;(b) double wedge symmetric selection model; (c) sFSC selector workflow simulation diagram at single frequency shell domain
    Fig. 2. Working principle diagram of sFSC method’s shell selector. (a) Selector model parameters in spatial diagram;(b) double wedge symmetric selection model; (c) sFSC selector workflow simulation diagram at single frequency shell domain
    Resolution evaluation results of fluorescent balls with 0.1 μm diameter. (a) Intensity profile of the fluorescent balls; (b) Gaussian fitting results of intensity profile by FWHM method; (c) angle-dependent resolution curve calculated by sFSC method
    Fig. 3. Resolution evaluation results of fluorescent balls with 0.1 μm diameter. (a) Intensity profile of the fluorescent balls; (b) Gaussian fitting results of intensity profile by FWHM method; (c) angle-dependent resolution curve calculated by sFSC method
    Flow chart of image restoration based on sFSC resolution evaluation method
    Fig. 4. Flow chart of image restoration based on sFSC resolution evaluation method
    Comparison of resolution and image quality before and after restoration. (a) Resolution curves using sFSC method;(b) image comparison before and after Wiener deconvolution; (c) intensity profile curves of ROI in Fig. 5(b)
    Fig. 5. Comparison of resolution and image quality before and after restoration. (a) Resolution curves using sFSC method;(b) image comparison before and after Wiener deconvolution; (c) intensity profile curves of ROI in Fig. 5(b)
    Comparison of images reconstructed by Wiener deconvolution under different PSF. (a) Original data; (b) T-PSF; (c) R-PSF1; (d) R-PSF2; (e) O-PSF; (f) sFSC-PSF
    Fig. 6. Comparison of images reconstructed by Wiener deconvolution under different PSF. (a) Original data; (b) T-PSF; (c) R-PSF1; (d) R-PSF2; (e) O-PSF; (f) sFSC-PSF
    Maximum projection images reconstructed by different deconvolution methods on different PSF size
    Fig. 7. Maximum projection images reconstructed by different deconvolution methods on different PSF size
    sFSC resolution curves of LW deconvolution with R-PSF and sFSC-PSF input. (a) R-PSF (0.18 μm×0.55 μm);(b) sFSC-PSF (0.198 μm×0.679 μm)
    Fig. 8. sFSC resolution curves of LW deconvolution with R-PSF and sFSC-PSF input. (a) R-PSF (0.18 μm×0.55 μm);(b) sFSC-PSF (0.198 μm×0.679 μm)
    MethodLateral resolutionAxial resolution
    Theoretical0.2920.979
    FWHM0.2941.297
    sFSC0.3121.648
    Table 1. Comparison of resolution results among theoretical calculation, FWHM, and sFSC methods unit:μm
    PSFOriginal dataT-PSFR-PSF1R-PSF2O-PSFsFSC-PSF
    Size /(μm×μm)0.204×0.4580.18×0.550.22×0.600.25×0.600.198×0.679
    Score4.044.945.335.094.825.40
    Table 2. BIBLE score of the maximum projection images reconstructed by Winner deconvolution on different PSF size
    PSFOriginal dataT-PSFR-PSF1R-PSF2O-PSFsFSC-PSF
    Size /(μm×μm)0.204×0.4580.18×0.550.22×0.600.25×0.600.198×0.679
    Lateral resolution /μm0.19840.17370.17070.17630.18140.1693
    Axial resolution /μm0.67920.45910.46100.46570.51670.4538
    Table 3. sFSC resolution evaluation results of images reconstructed with Wiener deconvolution on different PSF size
    PSFT-PSFR-PSF1R-PSF2O-PSFsFSC-PSF
    Size /(μm×μm)0.204×0.4580.18×0.550.22×0.600.25×0.600.198×0.679
    BIBLE scoreRL3.944.183.783.564.38
    NNLS2.852.952.682.503.22
    LW2.863.192.832.663.38
    TRIF2.943.362.932.703.51
    Table 4. BIBLE score of the maximum projection images reconstructed by different deconvolution methods on different PSF
    PSFT-PSFR-PSF1R-PSF2O-PSFsFSC-PSF
    Size /(μm×μm)0.204×0.4580.18×0.550.22×0.600.25×0.600.198×0.679
    Lateral resolution /μmRL0.19410.18200.19860.20470.1725
    NNLS0.19120.18510.19690.21260.1833
    LW0.18130.17050.19040.20970.1824
    TRIF0.18230.16650.19160.21250.1665
    Axial resolution /μmRL0.62290.61780.63550.64090.6160
    NNLS0.53620.53290.52830.53370.5307
    LW0.53090.49990.52690.53810.5013
    TRIF0.52650.50350.52080.53470.5011
    Table 5. sFSC resolution evaluation results of images reconstructed by different deconvolution methods on different PSF
    Xiliang Luo, Zhou Zhou, Jiangfeng Huang, Xiangjiang Dong, Gang Zheng, Ling Fu. Resolution Evaluation Method and Applications of 3D Microscopic Images[J]. Chinese Journal of Lasers, 2022, 49(5): 0507205
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