• Acta Optica Sinica
  • Vol. 40, Issue 3, 0315001 (2020)
Faling Chen1、2、3、4、5、*, Qinghai Ding1、6, Zheng Chang1、2、4、5, Hongyu Chen1、2、3、4、5, Haibo Luo1、2、4、5, Bin Hui1、2、4、5, and Yunpeng Liu1、2、4、5
Author Affiliations
  • 1Shenyang Institute of Automation, Chinese Academy of Sciences, Shenyang, Liaoning 110016, China
  • 2Institutes for Robotics and Intelligent Manufacturing, Chinese Academy of Sciences, Shenyang, Liaoning 110169, China
  • 3University of Chinese Academy of Sciences, Beijing 100049, China
  • 4Key Laboratory of Opto-Electronic Information Processing, Chinese Academy of Sciences, Shenyang, Liaoning 110016, China
  • 5Key Laboratory of Image Understanding and Computer Vision, Shenyang, Liaoning 110016, China
  • 6Space Star Technology Co., Ltd., Beijing 100086, China
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    DOI: 10.3788/AOS202040.0315001 Cite this Article Set citation alerts
    Faling Chen, Qinghai Ding, Zheng Chang, Hongyu Chen, Haibo Luo, Bin Hui, Yunpeng Liu. Multi-Scale Kernel Correlation Filter Algorithm for Visual Tracking Based on the Fusion of Adaptive Features[J]. Acta Optica Sinica, 2020, 40(3): 0315001 Copy Citation Text show less
    Schematic of adaptive features fusion process
    Fig. 1. Schematic of adaptive features fusion process
    Relationship between weight adjustment ρ and the target tracking performance
    Fig. 2. Relationship between weight adjustment ρ and the target tracking performance
    Distance precision curves and overlap precision curves of three target tracking algorithms. (a) Distance precision; (b) overlap precision
    Fig. 3. Distance precision curves and overlap precision curves of three target tracking algorithms. (a) Distance precision; (b) overlap precision
    Comparisons of estimated scale by the proposed algorithm and actual scale on four sequences.(a) Blurcar2; (b) Dog1; (c) Doll; (d) Carscale
    Fig. 4. Comparisons of estimated scale by the proposed algorithm and actual scale on four sequences.(a) Blurcar2; (b) Dog1; (c) Doll; (d) Carscale
    Distance precision curves and overlap precision curves of different target tracking algorithms. (a) Distance precision; (b) overlap precision
    Fig. 5. Distance precision curves and overlap precision curves of different target tracking algorithms. (a) Distance precision; (b) overlap precision
    Comparison of tracking results among five algorithms on David sequence
    Fig. 6. Comparison of tracking results among five algorithms on David sequence
    Comparison of tracking results among five algorithms on Basketball sequence
    Fig. 7. Comparison of tracking results among five algorithms on Basketball sequence
    Comparison of tracking results among five algorithms on Carscale sequence
    Fig. 8. Comparison of tracking results among five algorithms on Carscale sequence
    Comparison of tracking results among five algorithms on Jogging1 sequence
    Fig. 9. Comparison of tracking results among five algorithms on Jogging1 sequence
    Comparison of tracking results among five algorithms on Trellis sequence
    Fig. 10. Comparison of tracking results among five algorithms on Trellis sequence
    Comparison of tracking results among five algorithms on Trellis sequence
    Fig. 11. Comparison of tracking results among five algorithms on Trellis sequence
    SequenceMean ECLPd /% (ECL=20)Po /% (So=0.5)
    Blurcar23.42100.0100.0
    Dog13.81100.0100.0
    Doll2.2699.399.6
    Carscale3.84100.0100.0
    Table 1. Tracking results of the proposed algorithm on four scale variation sequences
    AlgorithmIVDEFSVOCCMBFMIPROPROVBCLR
    Proposed0.7800.7370.7390.7610.6530.5810.7040.7510.6650.7140.424
    DSST0.7300.6360.7380.6920.5440.5130.7680.7250.5110.6940.497
    KCF0.6570.6980.6480.6950.5710.5340.6910.6780.5900.6760.387
    Struck0.5580.5210.6390.5640.5510.6040.6170.5970.5390.5850.545
    SCM0.5940.5860.6720.6400.3390.3330.5970.6180.4290.5780.305
    CN0.5760.6070.5990.6210.5510.4820.6740.6450.4380.6290.408
    TLD0.5370.5120.6060.5630.5180.5510.5840.5960.5760.4280.349
    VTD0.5570.5010.5970.5450.3750.3520.5990.6200.4620.5710.168
    VTS0.5730.4870.5820.5340.3750.3530.5790.6040.4550.5780.187
    CXT0.5010.4220.5500.4910.5090.5150.6100.5740.5100.4430.371
    Table 2. Pd scores of the top ten algorithms on eleven attributes
    AlgorithmIVDEFSVOCCMBFMIPROPROVBCLR
    Proposed0.7120.7330.7210.7380.5910.5320.6740.7020.6720.6480.419
    DSST0.6810.6100.6400.6320.5280.5030.6790.6320.5120.6270.437
    SCM0.5680.5650.6350.5990.3390.3350.5600.5750.4490.5500.308
    KCF0.5430.6280.4740.5800.5610.5230.6130.5790.6100.6300.355
    Struck0.4910.4730.4710.4930.5180.5670.5280.5060.5500.5450.410
    TLD0.4600.4560.4940.4680.4820.4730.4760.4970.5160.3880.327
    ALSA0.5030.4560.5440.4510.2810.2600.4880.4940.3590.4680.163
    CN0.4500.5110.4210.4790.4800.4370.5500.5010.4580.5310.399
    VTS0.5030.4410.4530.4650.3280.3250.4770.4960.5080.5160.183
    VTD0.4800.4430.4600.4680.3200.3190.5000.5100.4910.5150.170
    Table 3. Po of the top ten algorithms on eleven attributes
    Faling Chen, Qinghai Ding, Zheng Chang, Hongyu Chen, Haibo Luo, Bin Hui, Yunpeng Liu. Multi-Scale Kernel Correlation Filter Algorithm for Visual Tracking Based on the Fusion of Adaptive Features[J]. Acta Optica Sinica, 2020, 40(3): 0315001
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