• Laser & Optoelectronics Progress
  • Vol. 57, Issue 18, 181009 (2020)
Xingyu Chen*, Weijin Zhang, Weizhi Sun, Ping'an Ren, and Ou Ou
Author Affiliations
  • College of Information Science and Technology (College of Internet Security), Chengdu University of Technology, Chengdu, Sichuan 610051, China
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    DOI: 10.3788/LOP57.181009 Cite this Article Set citation alerts
    Xingyu Chen, Weijin Zhang, Weizhi Sun, Ping'an Ren, Ou Ou. Super-Resolution Reconstruction of Images Based on Multi-Scale and Multi-Residual Network[J]. Laser & Optoelectronics Progress, 2020, 57(18): 181009 Copy Citation Text show less
    Multi-scale and multi-residual super-resolution reconstruction network structure
    Fig. 1. Multi-scale and multi-residual super-resolution reconstruction network structure
    Multi-scale residual module structure
    Fig. 2. Multi-scale residual module structure
    Average PSNR variation for each training cycle
    Fig. 3. Average PSNR variation for each training cycle
    Subjective comparison of super-resolution results of butterfly images processed by different algorithms under four times magnification factor. (a) GT; (b) BICUBIC algorithm; (c) ESPCN algorithm; (d) SRCNN algorithm; (e) VDSR algorithm; (f) IMRSR algorithm
    Fig. 4. Subjective comparison of super-resolution results of butterfly images processed by different algorithms under four times magnification factor. (a) GT; (b) BICUBIC algorithm; (c) ESPCN algorithm; (d) SRCNN algorithm; (e) VDSR algorithm; (f) IMRSR algorithm
    Subjective comparison of super-resolution results of PPT images processed by different algorithms under four times magnification factor. (a) GT; (b) BICUBIC algorithm; (c) ESPCN algorithm; (d) SRCNN algorithm; (e) VDSR algorithm; (f) IMRSR algorithm
    Fig. 5. Subjective comparison of super-resolution results of PPT images processed by different algorithms under four times magnification factor. (a) GT; (b) BICUBIC algorithm; (c) ESPCN algorithm; (d) SRCNN algorithm; (e) VDSR algorithm; (f) IMRSR algorithm
    Number of multi-scaleresidual blockPSNR /dB
    Set5Set14
    731.5128.18
    1131.5228.14
    15182231.4631.5931.4028.1628.1928.06
    Table 1. Effects of number of different multi-scale residual blocks on PSNR
    DatasetScaleBICUBICSelf-ExSRCNNESPCNVDSRIMRSR
    Set5×2×3×433.6430.3828.4236.4932.5830.3136.4532.3830.1936.5732.5530.3137.3033.4430.9837.7833.9131.59
    Set14×2×3×430.0827.3825.8632.2229.1627.4032.3729.1527.3732.4729.2727.4832.9729.6927.8333.2629.8828.19
    BSD100×2×3×429.5927.2025.9631.1828.2926.8431.2528.2426.8031.2928.3226.8531.7728.7027.1432.0028.8027.30
    Urban100×2×3×426.8624.4423.1329.5426.4424.7929.0825.7924.2029.2125.9424.2830.4626.8724.9531.0027.0025.15
    Table 2. Average PSNR of different algorithms for different super-resolution reconstructions on different test setsunit: dB
    DatasetScaleBICUBICSelf-ExSRCNNESPCNVDSRIMRSR
    Set5×2×3×40.93620.87920.82230.95370.90930.86190.95740.91170.86390.95850.91500.86720.96250.92760.88750.96430.93120.8957
    Set14×2×3×40.88070.79250.72100.90340.81960.75180.91410.83440.76650.91530.83690.76900.91990.84560.78170.92270.84880.7892
    BSD100×2×3×40.85750.75840.68560.88550.78400.71060.89740.80280.72970.89790.80430.73080.90410.81340.74130.90730.81660.7469
    Urban100×2×3×40.84960.75090.67390.89670.80880.71740.89630.80070.72490.89780.80540.72870.91700.83500.76140.92350.84030.7714
    Table 3. Average SSIM of different algorithms for different super-resolution reconstructions on different test sets
    Xingyu Chen, Weijin Zhang, Weizhi Sun, Ping'an Ren, Ou Ou. Super-Resolution Reconstruction of Images Based on Multi-Scale and Multi-Residual Network[J]. Laser & Optoelectronics Progress, 2020, 57(18): 181009
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