• Journal of Infrared and Millimeter Waves
  • Vol. 42, Issue 6, 916 (2023)
Yu-Ze LI1, Yan ZHANG1、*, Yu CHEN2, and Chun-Ling YANG1、**
Author Affiliations
  • 1School of Electrical Engineering and Automation,Harbin Institute of Technology,Harbin 150001,China
  • 2College of Electrical Engineering and Automation,Shandong University of Science and Technology,Qingdao 266590,China
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    DOI: 10.11972/j.issn.1001-9014.2023.06.025 Cite this Article
    Yu-Ze LI, Yan ZHANG, Yu CHEN, Chun-Ling YANG. An unsupervised few-shot infrared aerial object recognition network based on deep-shallow learning graph model[J]. Journal of Infrared and Millimeter Waves, 2023, 42(6): 916 Copy Citation Text show less
    The framework of aerial object recognition model
    Fig. 1. The framework of aerial object recognition model
    Framework of domain invariant deep feature extraction module
    Fig. 2. Framework of domain invariant deep feature extraction module
    Histograms of the deep features in source and target domains,(a)the sample in the source domain,(b)the histogram of the deep features in the source domain,(c)the sample in the target domain,(d)the histogram of the deep features in the target domain
    Fig. 3. Histograms of the deep features in source and target domains,(a)the sample in the source domain,(b)the histogram of the deep features in the source domain,(c)the sample in the target domain,(d)the histogram of the deep features in the target domain
    Bar charts of shallow features,(a)the sample,(b)SIFT,(c)LBP,(d)Harris,(e)HOG,(f)grayscale histogram
    Fig. 4. Bar charts of shallow features,(a)the sample,(b)SIFT,(c)LBP,(d)Harris,(e)HOG,(f)grayscale histogram
    Framework of GCN-based feature fusion module
    Fig. 5. Framework of GCN-based feature fusion module
    Histograms of the fused features in source and target domains,(a)the sample in source domain,(b)the histogram of the fused features in source domain,(c)the sample in target domain,(d)the histogram of the fused features in target domain
    Fig. 6. Histograms of the fused features in source and target domains,(a)the sample in source domain,(b)the histogram of the fused features in source domain,(c)the sample in target domain,(d)the histogram of the fused features in target domain
    Samples of typical aerial object images
    Fig. 7. Samples of typical aerial object images
    Experimental results on the sensitivity of hgperparameter λwd
    Fig. 8. Experimental results on the sensitivity of hgperparameter λwd
    Ressults of feature visualization for D-SLGM algorithm,(a) visualization of the deep features extracted by baseline CNN,(b)visualization of the domain invariant deep features extracted by D-SLGM,(c)visualization of the final features extracted by D-SLGM
    Fig. 9. Ressults of feature visualization for D-SLGM algorithm,(a) visualization of the deep features extracted by baseline CNN,(b)visualization of the domain invariant deep features extracted by D-SLGM,(c)visualization of the final features extracted by D-SLGM
    方法跨域识别任务mAAc
    S→T1S→T2S→T3
    CNN62.856.937.252.3
    DAN96.774.139.170.0
    JAN97.975.840.171.3
    VREx97.777.444.873.3
    CoVi97.287.344.176.2
    D-SLGM‬99.388.946.578.2
    Table 1. Accuracies of different algorithms on aerial objects datasets (%)
    方法跨域识别任务mAAc
    S→T1S→T2S→T3
    SLGM58.066.830.751.8
    DLGM98.182.641.374.0
    D-SLM98.985.640.975.1
    D-SLGM‬99.388.946.578.2
    Table 2. Results of ablation experiments on D-SLGM (%)
    Yu-Ze LI, Yan ZHANG, Yu CHEN, Chun-Ling YANG. An unsupervised few-shot infrared aerial object recognition network based on deep-shallow learning graph model[J]. Journal of Infrared and Millimeter Waves, 2023, 42(6): 916
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