• Laser & Optoelectronics Progress
  • Vol. 59, Issue 16, 1611005 (2022)
Lü Huanhuan1、2, Zhuolu Wang1, and Hui Zhang2、*
Author Affiliations
  • 1School of Software, Liaoning Technical University, Huludao 125105, Liaoning , China
  • 2School of Information Engineering, Huzhou University, Huzhou 313000, Zhejiang , China
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    DOI: 10.3788/LOP202259.1611005 Cite this Article Set citation alerts
    Lü Huanhuan, Zhuolu Wang, Hui Zhang. Hyperspectral Image Classification Based on Edge-Preserving Filter and Deep Residual Network[J]. Laser & Optoelectronics Progress, 2022, 59(16): 1611005 Copy Citation Text show less
    Overall flow of the proposed method
    Fig. 1. Overall flow of the proposed method
    Structure diagram of residual element
    Fig. 2. Structure diagram of residual element
    Model structure of depth residual network
    Fig. 3. Model structure of depth residual network
    Indian Pines dataset. (a) False color image;(b) real ground data
    Fig. 4. Indian Pines dataset. (a) False color image;(b) real ground data
    Pavia University dataset. (a) False color image;(b) real ground data
    Fig. 5. Pavia University dataset. (a) False color image;(b) real ground data
    Classification accuracy of different dropout values. (a) Indian Pines; (b) Pavia University
    Fig. 6. Classification accuracy of different dropout values. (a) Indian Pines; (b) Pavia University
    Loss function and overall classification accuracy of different epoch values. (a) Indian Pines; (b) Pavia University
    Fig. 7. Loss function and overall classification accuracy of different epoch values. (a) Indian Pines; (b) Pavia University
    Classification accuracy of different η values. (a) Indian Pines; (b) Pavia University
    Fig. 8. Classification accuracy of different η values. (a) Indian Pines; (b) Pavia University
    Overall classification accuracy of different δc values and δs values. (a) Indian Pines; (b) Pavia University
    Fig. 9. Overall classification accuracy of different δc values and δs values. (a) Indian Pines; (b) Pavia University
    Classification results of different algorithms in Indian Pines dataset
    Fig. 10. Classification results of different algorithms in Indian Pines dataset
    Partial enlargement comparison of classification results of Indian Pines dataset
    Fig. 11. Partial enlargement comparison of classification results of Indian Pines dataset
    Classification results of different algorithms in Pavia University dataset
    Fig. 12. Classification results of different algorithms in Pavia University dataset
    Partial enlargement comparison of classification results of Pavia University dataset
    Fig. 13. Partial enlargement comparison of classification results of Pavia University dataset
    Input layerLayerFeature map sizeParams
    Total number of parameters1276592
    Input9,9,30
    InputC17,7,16448
    C1C27,7,324640
    C2C37,7,329248
    C1R17,7,324640
    C3、R1Add17,7,320
    Add1Activation17,7,320
    Activation1C47,7,6418496
    C4C57,7,6436928
    C1R27,7,649280
    Activation1R47,7,6418496
    C5、R2、R4Add27,7,640
    Add2Activation27,7,640
    Activation2C67,7,12873856
    C6C77,7,128147584
    C1R37,7,12818560
    Add1R57,7,12836992
    Add2R67,7,12873856
    C7、R3、R5、R6Add37,7,1280
    Add3Activation37,7,1280
    Activation3P15,5,1280
    P1Flatten132000
    Flatten1FC256819456
    FCDropout2560
    DropoutSoftmax164112
    Table 1. Feature map size and parameter quantities of depth residual network
    Number of convolution kernelsIndian PinesPavia University
    OA /%Kappa /%OA /%Kappa /%
    888.5486.9490.3488.92
    1692.1691.0692.5391.57
    3291.2990.0893.5392.98
    6490.7589.6291.0189.92
    Table 2. Classification accuracy corresponding to different numbers of convolution kernels
    ClassSP-SVM2DCNNRes-3DCNNS2FEF-CNNLBP-1DCNNRes-2DCNNJBF-2DCNN

    JBF-Res-

    2DCNN

    Alfalfa60.8681.8171.4282.6088.37100.0097.43100.00
    Corn-notill76.4378.3591.2590.9894.8898.4098.7596.87
    Corn-min72.8984.2689.7992.6595.2995.0496.5897.36
    Corn57.5664.9582.4389.0489.3791.5498.03100.00
    Grass/pasture90.1190.4292.8091.8792.9398.5795.5599.08
    Grass/trees87.8494.9493.4098.9499.2496.6099.84100.00
    Grass-mowed87.50100.0088.0077.4175.0090.0096.00100.00
    Hay-windrowed93.1896.5794.0599.53100.00100.00100.00100.00
    Oats50.0087.5090.9050.0052.1743.4787.5090.00
    Soybeans-notill75.0879.7788.5391.0693.2093.8796.5098.06
    Soybeans-min78.5281.8894.9694.5796.7697.4796.3999.77
    Soybeans-clean83.4081.9788.6991.4992.9196.2497.7097.55
    Wheat97.2994.32100.00100.00100.00100.00100.00100.00
    Woods93.1193.3798.5799.2999.1198.9499.3899.91
    Bldg-grass-drives77.9475.9589.9493.8794.6696.5095.2299.71
    Stone-steel-towes98.57100.0098.6196.9295.52100.00100.00100.00
    OA81.5684.7192.7894.1795.8396.9297.6298.87
    AA80.0286.6390.8390.0191.2193.5497.1898.64
    Kappa78.9082.5391.7793.3595.2596.6097.2898.71
    Table 3. Classification results of different algorithms in the Indian Pines dataset
    ClassSP-SVM2DCNNRes-3DCNNS2FEF-CNNLBP-1DCNNRes-2DCNNJBF-2DCNNJBF-Res-2DCNN
    Asphalt81.4489.3793.3195.0996.0897.9598.2099.38
    Meadows90.2691.6795.1297.8399.2398.3699.7899.92
    Gravel82.6383.3180.1693.2794.9691.8092.1896.32
    Trees95.6596.7499.9199.2497.7498.1896.7899.45
    Painted metalsheets99.1599.1591.7699.23100.0097.09100.0098.02
    Bare soil94.1194.2395.0897.7497.4195.7499.59100.00
    Bitumen94.7787.6983.9483.9685.2298.7395.3098.84
    Self-blocking bricks79.2680.9086.0786.5288.1590.2393.5497.67
    Shadows100.00100.00100.00100.00100.00100.00100.00100.00
    OA88.5890.8693.2895.8596.7897.1498.2699.35
    AA90.8191.4591.7194.7695.4295.9697.2698.84
    Kappa84.5387.6991.0194.4895.7396.4897.6999.13
    Table 4. Classification results of different algorithms in Pavia University dataset
    DatasetParameterAlgorithm
    SP-SVMRes-3DCNNS2FEF-CNNLBP-1DCNNJBF-Res-2DCNN
    Indian PinesTraining time18.641507.281430.21890.491293.52
    Test time0.755.063.912.783.04
    Pavia UniversityTraining time10.311002.79921.52629.46862.95
    Test time1.428.357.285.055.93
    Table 5. Training time and test time of different algorithms
    Lü Huanhuan, Zhuolu Wang, Hui Zhang. Hyperspectral Image Classification Based on Edge-Preserving Filter and Deep Residual Network[J]. Laser & Optoelectronics Progress, 2022, 59(16): 1611005
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