• Infrared and Laser Engineering
  • Vol. 50, Issue 10, 2021G004 (2021)
Yichao Wang1、2, Zheng Zhang1, Haizhou Huang1, and Wenxiong Lin1
Author Affiliations
  • 1Fujian Institute of Research on the Structure of Matter, Chinese Academy of Sciences, Fuzhou 350002, China
  • 2University of the Chinese Academy of Sciences, Beijing 100049, China
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    DOI: 10.3788/IRLA2021G004 Cite this Article
    Yichao Wang, Zheng Zhang, Haizhou Huang, Wenxiong Lin. Particle auto-statistics and measurement of the spherical powder for 3D printing based on deep learning[J]. Infrared and Laser Engineering, 2021, 50(10): 2021G004 Copy Citation Text show less
    Flowchart of the powder microscopy image automatic analysis system
    Fig. 1. Flowchart of the powder microscopy image automatic analysis system
    (a) Original SEM image (2 048×2 048 pixel), which is cropped into 16 parts; (b) Characteristic image labeled with LabelMe(512×512 pixel); (c) The corresponding image mask of (b)
    Fig. 2. (a) Original SEM image (2 048×2 048 pixel), which is cropped into 16 parts; (b) Characteristic image labeled with LabelMe(512×512 pixel); (c) The corresponding image mask of (b)
    Loss-epoch curve during train process
    Fig. 3. Loss-epoch curve during train process
    Flowchart of transferring and rough merging process of one sub-image
    Fig. 4. Flowchart of transferring and rough merging process of one sub-image
    Illustration of two kinds of IoU & IoS in rough merging and precise merging processes, respectively. (a) IoU & IoS of two circumscribed rectangles; (b) IoU & IoS of two masks; (c) One example of the usage of IoS
    Fig. 5. Illustration of two kinds of IoU & IoS in rough merging and precise merging processes, respectively. (a) IoU & IoS of two circumscribed rectangles; (b) IoU & IoS of two masks; (c) One example of the usage of IoS
    (a) Illustration of particle boundary smoothing and error compensation; (b) Fitted perimeter and area residual function based on scattered deviation values of standard circles
    Fig. 6. (a) Illustration of particle boundary smoothing and error compensation; (b) Fitted perimeter and area residual function based on scattered deviation values of standard circles
    Predicted results and comparation with the Phenom ProSuite Software Particlemetric. (a) Raw image; (b) Output segmentation result of Particlemetric; (c) Four enlarged details region of (b); (d) Output result of proposed method; (e) Four enlarged details region of (d)
    Fig. 7. Predicted results and comparation with the Phenom ProSuite Software Particlemetric. (a) Raw image; (b) Output segmentation result of Particlemetric; (c) Four enlarged details region of (b); (d) Output result of proposed method; (e) Four enlarged details region of (d)
    Statistical analysis results and comparation. (a) PSD results measured by the Particlemetric, our method and laser diffraction technique, respectively; (b) Degree of sphericity distribution (DSD) results measured by Particlemetric and proposed method
    Fig. 8. Statistical analysis results and comparation. (a) PSD results measured by the Particlemetric, our method and laser diffraction technique, respectively; (b) Degree of sphericity distribution (DSD) results measured by Particlemetric and proposed method
    Yichao Wang, Zheng Zhang, Haizhou Huang, Wenxiong Lin. Particle auto-statistics and measurement of the spherical powder for 3D printing based on deep learning[J]. Infrared and Laser Engineering, 2021, 50(10): 2021G004
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