• Laser & Optoelectronics Progress
  • Vol. 56, Issue 22, 221202 (2019)
Jianyang Feng, Haiyun Chen*, Chu Shi, Gaoming Liu, and Xiang Yan
Author Affiliations
  • School of Electrical Engineering and Information, Southwest Petroleum University, Chengdu, Sichuan 610500, China
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    DOI: 10.3788/LOP56.221202 Cite this Article Set citation alerts
    Jianyang Feng, Haiyun Chen, Chu Shi, Gaoming Liu, Xiang Yan. Three-Dimensional Measurement of Highly-Reflective Surface Using Structured Light Technique[J]. Laser & Optoelectronics Progress, 2019, 56(22): 221202 Copy Citation Text show less
    Strip-edge-based structured light pattern
    Fig. 1. Strip-edge-based structured light pattern
    Three experimental objects with highly-reflective property. (a) Metal block; (b) stainless steel surface 1; (c) stainless steel surface 2
    Fig. 2. Three experimental objects with highly-reflective property. (a) Metal block; (b) stainless steel surface 1; (c) stainless steel surface 2
    Fringe images captured in long and short exposure time for three measured surfaces. (a) Fringe images captured in long exposure time; (b) fringe images captured in short exposure time
    Fig. 3. Fringe images captured in long and short exposure time for three measured surfaces. (a) Fringe images captured in long exposure time; (b) fringe images captured in short exposure time
    Results of coded fringe adjustment. (a) Method in Ref. [17]; (b) method in Ref. [16]; (c) proposed method
    Fig. 4. Results of coded fringe adjustment. (a) Method in Ref. [17]; (b) method in Ref. [16]; (c) proposed method
    Combined fringe images for three measured surfaces. (a) Metal block; (b) stainless steel surface 1; (c) stainless steel surface 2
    Fig. 5. Combined fringe images for three measured surfaces. (a) Metal block; (b) stainless steel surface 1; (c) stainless steel surface 2
    Correspondences of three measured surfaces in different 3D reconstruction methods. (a) Method in Ref. [2]; (b) method in Ref. [16]; (c) method in Ref. [17]; (d) proposed method; (e) spatiotemporal analysis method
    Fig. 6. Correspondences of three measured surfaces in different 3D reconstruction methods. (a) Method in Ref. [2]; (b) method in Ref. [16]; (c) method in Ref. [17]; (d) proposed method; (e) spatiotemporal analysis method
    Accuracies of different 3D reconstruction methods for measured surfaces
    Fig. 7. Accuracies of different 3D reconstruction methods for measured surfaces
    Reconstructed shapes for three measured surfaces. (a) Reconstructed shapes by method in Ref. [2]; (b) reconstructed shapes by method in Ref. [16]; (c) reconstructed shapes by method in Ref. [17]; (d) reconstructed shapes by proposed method
    Fig. 8. Reconstructed shapes for three measured surfaces. (a) Reconstructed shapes by method in Ref. [2]; (b) reconstructed shapes by method in Ref. [16]; (c) reconstructed shapes by method in Ref. [17]; (d) reconstructed shapes by proposed method
    Jianyang Feng, Haiyun Chen, Chu Shi, Gaoming Liu, Xiang Yan. Three-Dimensional Measurement of Highly-Reflective Surface Using Structured Light Technique[J]. Laser & Optoelectronics Progress, 2019, 56(22): 221202
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