• Chinese Optics Letters
  • Vol. 21, Issue 5, 051701 (2023)
Ke Wang, Lei Zheng, Mengyuan Qin, Wanjian Zhang, Xiangquan Deng, Shen Tong, Hui Cheng, Jie Huang, Jincheng Zhong, Yingxian Zhang, and Ping Qiu*
Author Affiliations
  • Key Laboratory of Optoelectronic Devices and Systems of Ministry of Education and Guangdong Province, College of Physics and Optoelectronic Engineering, Shenzhen University, Shenzhen 518060, China
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    DOI: 10.3788/COL202321.051701 Cite this Article Set citation alerts
    Ke Wang, Lei Zheng, Mengyuan Qin, Wanjian Zhang, Xiangquan Deng, Shen Tong, Hui Cheng, Jie Huang, Jincheng Zhong, Yingxian Zhang, Ping Qiu. Aberration correction for multiphoton microscopy using covariance matrix adaptation evolution strategy[J]. Chinese Optics Letters, 2023, 21(5): 051701 Copy Citation Text show less
    Experimental setup. L1, f = 100 mm lens; L2, f = 75 mm lens; LPF, 1650-nm long-pass filter; HWP, half-wave plate; PBS, polarization beam splitter cube; L3, f = 35 mm lens; L4, f = 150 mm lens; L5, f = 500 mm lens; L6, f = 150 mm lens; DC, dichroic mirror; OL, objective lens; BPF, bandpass filter.
    Fig. 1. Experimental setup. L1, f = 100 mm lens; L2, f = 75 mm lens; LPF, 1650-nm long-pass filter; HWP, half-wave plate; PBS, polarization beam splitter cube; L3, f = 35 mm lens; L4, f = 150 mm lens; L5, f = 500 mm lens; L6, f = 150 mm lens; DC, dichroic mirror; OL, objective lens; BPF, bandpass filter.
    Simulation process schematic. (a) The GA process schematic, and (b) the CMA-ES process schematic.
    Fig. 2. Simulation process schematic. (a) The GA process schematic, and (b) the CMA-ES process schematic.
    Comparison of the GA and the CMA-ES by numerical simulation. (a) The original aberrated wavefront (left), the wavefront corrected by GA (middle), and the wavefront corrected by CMA-ES (right). (b) The iteration curve comparison.
    Fig. 3. Comparison of the GA and the CMA-ES by numerical simulation. (a) The original aberrated wavefront (left), the wavefront corrected by GA (middle), and the wavefront corrected by CMA-ES (right). (b) The iteration curve comparison.
    System aberration correction results. (a) The comparison of the fluorescent bead before and after corrections (left, without correction; middle, correction by GA; right, correction by CMA-ES). (b) The axial resolution comparison. (c) The iteration curve comparison.
    Fig. 4. System aberration correction results. (a) The comparison of the fluorescent bead before and after corrections (left, without correction; middle, correction by GA; right, correction by CMA-ES). (b) The axial resolution comparison. (c) The iteration curve comparison.
    Brain slice aberration correction result. (a) The Brain slice THG image (left, without correction; middle, correction by GA; right, correction by CMA-ES). (b) The line profile of the underlined THG signal in (a). (c) The comparison of the iteration curves.
    Fig. 5. Brain slice aberration correction result. (a) The Brain slice THG image (left, without correction; middle, correction by GA; right, correction by CMA-ES). (b) The line profile of the underlined THG signal in (a). (c) The comparison of the iteration curves.
    Ke Wang, Lei Zheng, Mengyuan Qin, Wanjian Zhang, Xiangquan Deng, Shen Tong, Hui Cheng, Jie Huang, Jincheng Zhong, Yingxian Zhang, Ping Qiu. Aberration correction for multiphoton microscopy using covariance matrix adaptation evolution strategy[J]. Chinese Optics Letters, 2023, 21(5): 051701
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