• Acta Optica Sinica
  • Vol. 39, Issue 1, 0118001 (2019)
Xiaoyun Qin*, Dan Su, Xinyue Jia, Wei Zhou, and Hanming Guo*
Author Affiliations
  • School of Optical-Electrical and Computer Engineering, University of Shanghai for Science and Technology, Shanghai 200093, China
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    DOI: 10.3788/AOS201939.0118001 Cite this Article Set citation alerts
    Xiaoyun Qin, Dan Su, Xinyue Jia, Wei Zhou, Hanming Guo. Dislocation Correction Algorithm for Adaptive Laser Confocal High-Speed Scanning Microscopic Imaging[J]. Acta Optica Sinica, 2019, 39(1): 0118001 Copy Citation Text show less
    Traces of high speed mirror reciprocating progressive scanning
    Fig. 1. Traces of high speed mirror reciprocating progressive scanning
    Relationship between feedback signals of mirror driving board and image quality. (a) Dislocation signal feedback; (b) reconstructed dislocation Airy spot corresponding to Fig. 2(a); (c) ideal signal feedback; (d) reconstructed Airy spot corresponding to Fig. 2(c)
    Fig. 2. Relationship between feedback signals of mirror driving board and image quality. (a) Dislocation signal feedback; (b) reconstructed dislocation Airy spot corresponding to Fig. 2(a); (c) ideal signal feedback; (d) reconstructed Airy spot corresponding to Fig. 2(c)
    Block diagram of dislocation correction algorithm
    Fig. 3. Block diagram of dislocation correction algorithm
    Flow chart of imaging dislocation evaluation algorithm based on morphological gradient
    Fig. 4. Flow chart of imaging dislocation evaluation algorithm based on morphological gradient
    Flow chart of single-objective constrained optimization particle swarm algorithm
    Fig. 5. Flow chart of single-objective constrained optimization particle swarm algorithm
    Imaging dislocation correction in double-glvanometer scanning. (a) Before correction; (b) after correction; (c) gray value and pixel relationship curve of the red line in dislocation image corresponding to Fig. 6(a); (d) gray value and pixel relationship curve of the red line in correction image corresponding to Fig. 6(b)
    Fig. 6. Imaging dislocation correction in double-glvanometer scanning. (a) Before correction; (b) after correction; (c) gray value and pixel relationship curve of the red line in dislocation image corresponding to Fig. 6(a); (d) gray value and pixel relationship curve of the red line in correction image corresponding to Fig. 6(b)
    Relationship between ΔS and EMGD in double-galvanometer scanning
    Fig. 7. Relationship between ΔS and EMGD in double-galvanometer scanning
    Imaging dislocation correction in resonant-galvanometer scanning. (a) Before correction; (b) after correction; (c) gray value and pixel relationship curve of the red line in dislocation image corresponding to Fig. 8(a); (d) gray value and pixel relationship curve of the red line in correction image corresponding to Fig. 8(b)
    Fig. 8. Imaging dislocation correction in resonant-galvanometer scanning. (a) Before correction; (b) after correction; (c) gray value and pixel relationship curve of the red line in dislocation image corresponding to Fig. 8(a); (d) gray value and pixel relationship curve of the red line in correction image corresponding to Fig. 8(b)
    Relationship between ΔS and EMGD in resonant-galvanometer scanning
    Fig. 9. Relationship between ΔS and EMGD in resonant-galvanometer scanning
    Xiaoyun Qin, Dan Su, Xinyue Jia, Wei Zhou, Hanming Guo. Dislocation Correction Algorithm for Adaptive Laser Confocal High-Speed Scanning Microscopic Imaging[J]. Acta Optica Sinica, 2019, 39(1): 0118001
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