• Journal of Infrared and Millimeter Waves
  • Vol. 41, Issue 3, 639 (2022)
Li-Ya QIU1、2、3, Wei-Lin CHEN1、2、3, Fan-Ming LI1、3、*, Shi-Jian LIU1、3, Zheng LI1、3, and Chang TAN1、2、3
Author Affiliations
  • 1Shanghai Institute of Technical Physics,Chinese Academy of Sciences,Shanghai 200083,China
  • 2University of Chinese Academy of Sciences,Beijing 100049,China
  • 3Key Laboratory of Infrared System Detection and Imaging Technology,Chinese Academy of Sciences,Shanghai 200083,China
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    DOI: 10.11972/j.issn.1001-9014.2022.03.016 Cite this Article
    Li-Ya QIU, Wei-Lin CHEN, Fan-Ming LI, Shi-Jian LIU, Zheng LI, Chang TAN. Fast moving target detection algorithm based on LBP texture feature in complex background[J]. Journal of Infrared and Millimeter Waves, 2022, 41(3): 639 Copy Citation Text show less
    The algorithm flow chart
    Fig. 1. The algorithm flow chart
    The mode background modeling process:(a)input image sequence,(b)grayscale change curve,(c)gray histogram
    Fig. 2. The mode background modeling process:(a)input image sequence,(b)grayscale change curve,(c)gray histogram
    Background modeling results of different algorithms
    Fig. 3. Background modeling results of different algorithms
    Original MBLBP of frame 265 and frame 266
    Fig. 4. Original MBLBP of frame 265 and frame 266
    The schematic diagram of S_MBLBP:(a)improved S_MBLBP,(b)S_MBLBP with a target
    Fig. 5. The schematic diagram of S_MBLBP:(a)improved S_MBLBP,(b)S_MBLBP with a target
    The foreground target extraction:(a)gray value change diagram and gray histogram,(b)LBP value change diagram and LBP histogram,(c)foreground extraction process,(d)LBP background modeling
    Fig. 6. The foreground target extraction:(a)gray value change diagram and gray histogram,(b)LBP value change diagram and LBP histogram,(c)foreground extraction process,(d)LBP background modeling
    Comparison results between the proposed algorithm and various LBP algorithms:(a)comparison of different LBP algorithms in Skating,(b)comparison of moving object extraction results from different LBP algorithms in Skating,(c)comparison of different LBP algorithms in Lakeside,(d)comparison of moving object extraction results from different LBP algorithms in Lakeside
    Fig. 7. Comparison results between the proposed algorithm and various LBP algorithms:(a)comparison of different LBP algorithms in Skating,(b)comparison of moving object extraction results from different LBP algorithms in Skating,(c)comparison of different LBP algorithms in Lakeside,(d)comparison of moving object extraction results from different LBP algorithms in Lakeside
    Processing results of different algorithms in complex scenarios:(a)skating,(b)snowfall,(c)overpass,(d)canoe
    Fig. 8. Processing results of different algorithms in complex scenarios:(a)skating,(b)snowfall,(c)overpass,(d)canoe
    The processing results of different algorithms in the infrared scene:(a)dining room,(b)lake side,(c)library,(d)park,(e)corridor
    Fig. 9. The processing results of different algorithms in the infrared scene:(a)dining room,(b)lake side,(c)library,(d)park,(e)corridor
    Comparison of different algorithms in 9 scenarios
    Fig. 10. Comparison of different algorithms in 9 scenarios

    数据集

    名称

    blizzardskatingsnowFallcanoeoverpass

    尺寸

    平均用时

    720*480

    70.9077ms

    540*360

    33.7383ms

    720*480

    59.4381ms

    320*240

    48.2896ms

    320*240

    50.9535ms

    Table 1. Average processing time of visible light datasets

    数据集

    名称

    corridordiningRoomlakeSidelibrarypark

    尺寸

    平均用时

    320*240

    27.8161 ms

    320*240

    18.246 ms

    320*240

    23.6167 ms

    320*240

    25.8494 ms

    320*240

    54.8535 ms

    Table 2. Average processing time of infrared datasets
    Table 3. Evaluation index results of different algorithms
    Li-Ya QIU, Wei-Lin CHEN, Fan-Ming LI, Shi-Jian LIU, Zheng LI, Chang TAN. Fast moving target detection algorithm based on LBP texture feature in complex background[J]. Journal of Infrared and Millimeter Waves, 2022, 41(3): 639
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