• Laser & Optoelectronics Progress
  • Vol. 56, Issue 18, 181003 (2019)
Decheng Wang1, Xiangning Chen2、*, Feng Zhao1、3, and Haoran Sun4
Author Affiliations
  • 1 Graduate School, Space Engineering University, Beijing 101416, China
  • 2 School of Space Information, Space Engineering University, Beijing 101416, China
  • 3 61618 Troops, Beijing 100094, China
  • 4 Jiuquan Satellite Launch Centre, Jiuquan, Gansu 730000, China
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    DOI: 10.3788/LOP56.181003 Cite this Article Set citation alerts
    Decheng Wang, Xiangning Chen, Feng Zhao, Haoran Sun. Vehicle Detection Algorithm Based on Convolutional Neural Network and RGB-D Images[J]. Laser & Optoelectronics Progress, 2019, 56(18): 181003 Copy Citation Text show less
    Object detection model of Yolo
    Fig. 1. Object detection model of Yolo
    S-RGD structure
    Fig. 2. S-RGD structure
    D-RGBD structure
    Fig. 3. D-RGBD structure
    Experimental preprocessed images. (a) Original RGB image; (b) original depth image; (c) contrast enhanced depth image; (d) channel changed RG-D fused image
    Fig. 4. Experimental preprocessed images. (a) Original RGB image; (b) original depth image; (c) contrast enhanced depth image; (d) channel changed RG-D fused image
    Visualization of indicators in the S-RGD training processing. (a) Average RIOU curves for sampling rates of 0.01%; (b) average Rrecall curves for sampling rates of 0.01%; (c) top 500 times’ iteration of the xloss curve
    Fig. 5. Visualization of indicators in the S-RGD training processing. (a) Average RIOU curves for sampling rates of 0.01%; (b) average Rrecall curves for sampling rates of 0.01%; (c) top 500 times’ iteration of the xloss curve
    Vehicle detection results of using S-RGD and D-RGBD in different environments. (a) Normal environment; (b) tunnel, reflect light, night
    Fig. 6. Vehicle detection results of using S-RGD and D-RGBD in different environments. (a) Normal environment; (b) tunnel, reflect light, night
    Contrast results of RGB and RGB-D target detection by Yolo v2. (a) RGB detection results; (b) RGB-D detection results
    Fig. 7. Contrast results of RGB and RGB-D target detection by Yolo v2. (a) RGB detection results; (b) RGB-D detection results
    Comparison of enhanced RGB images and the RGB-D images. (a) Original images; (b) RGB detection results after image enhancement; (c) RGB-D detection results
    Fig. 8. Comparison of enhanced RGB images and the RGB-D images. (a) Original images; (b) RGB detection results after image enhancement; (c) RGB-D detection results
    Comparison between the proposed algorithm and other methods in the dataset NYU Depth v2
    Fig. 9. Comparison between the proposed algorithm and other methods in the dataset NYU Depth v2
    NetworkTime /msRIOU /%Pprecision /%Rrecall /%
    S-RGD2473.5285.2689.27
    D-RGBD19878.9188.4391.63
    Table 1. Comparison of S-RGD and D-RGBD performance indicators
    DatatypeAlgorithmcategoryTime /msPprecision /%Rrecall /%
    RGBimagesSSD2379.6584.90
    Faster R-CNN16184.3087.13
    Yolov21982.7485.32
    RGB-DimagesS-RGD2485.2689.27
    D-RGBD19888.4391.63
    Table 2. Comparison of the algorithm in this paper with other target detection methods
    Decheng Wang, Xiangning Chen, Feng Zhao, Haoran Sun. Vehicle Detection Algorithm Based on Convolutional Neural Network and RGB-D Images[J]. Laser & Optoelectronics Progress, 2019, 56(18): 181003
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