• Laser & Optoelectronics Progress
  • Vol. 59, Issue 8, 0811001 (2022)
Yanli Li and Ruofeng Xu*
Author Affiliations
  • School of Information and Control Engineering, China University of Mining and Technology, Xuzhou , Jiangsu 221116, China
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    DOI: 10.3788/LOP202259.0811001 Cite this Article Set citation alerts
    Yanli Li, Ruofeng Xu. No-Reference Image Quality Assessment of DIBR-Synthesized Images Based on Statistical Characteristics[J]. Laser & Optoelectronics Progress, 2022, 59(8): 0811001 Copy Citation Text show less
    Overview of the proposed method
    Fig. 1. Overview of the proposed method
    Texture distortion blocks of DIBR image and corresponding Benford’s law feature values. (a) Reference block and black hole block; (b) geometric distortion block; (c) blurry block; (d) incorrect texture block; (e) corresponding feature value
    Fig. 2. Texture distortion blocks of DIBR image and corresponding Benford’s law feature values. (a) Reference block and black hole block; (b) geometric distortion block; (c) blurry block; (d) incorrect texture block; (e) corresponding feature value
    Traditional images with different distortion levels and corresponding Benford’s law feature values. (a) First-level Gaussian blur; (b) second-level Gaussian blur; (c) third-level Gaussian blur; (d) fourth-level Gaussian blur; (e) feature values extracted from six traditional images with different distortion levels
    Fig. 3. Traditional images with different distortion levels and corresponding Benford’s law feature values. (a) First-level Gaussian blur; (b) second-level Gaussian blur; (c) third-level Gaussian blur; (d) fourth-level Gaussian blur; (e) feature values extracted from six traditional images with different distortion levels
    The first digit probability of DCT coefficients of images with different quality
    Fig. 4. The first digit probability of DCT coefficients of images with different quality
    DCT coefficients divided along the three directions of 45°, 90°, and 135°
    Fig. 5. DCT coefficients divided along the three directions of 45°, 90°, and 135°
    MSCN coefficients with different distortion
    Fig. 6. MSCN coefficients with different distortion
    Result of different training ratios
    Fig. 7. Result of different training ratios
    Results of different distortion types and different sequences. (a) Results of six conventional distorted images; (b) results of nine sequences of images
    Fig. 8. Results of different distortion types and different sequences. (a) Results of six conventional distorted images; (b) results of nine sequences of images
    DatasetNumber of sequencesNumber of DIBR algorithmsNumber of other distortionsNumber of images
    IVC37None84
    IETR107None140
    MCL-3D946693
    Table 1. Information of databases used in the experiments
    MethodTypeIVC datasetIETR datasetMCL-3D dataset
    PLCCSRCCRMSEPLCCSRCCRMSEPLCCSRCCRMSE
    BoscR0.58410.49030.54080.45360.43302.2980
    3DSwIM0.68640.61250.48420.65190.56831.9729
    ST-SIAQ0.69140.67460.48120.33450.42320.23360.71330.70341.8233
    MP-PSNR0.67290.62720.49250.57530.55070.20320.78310.78991.6179
    MW-PSNR0.62000.57390.52240.53010.48450.21060.76540.77211.6743
    SC-IQA0.84960.76400.35110.68560.64230.18050.81940.82471.4913
    LOGS0.82560.78120.36010.66870.66830.18450.76140.75791.6873
    APTNR0.73070.71570.45460.42250.41870.22520.64330.62001.9870
    MNSS0.77000.78500.41200.33870.22810.23330.37660.35312.4101
    NIQSV0.63460.61670.51460.17590.14730.24460.64600.57921.9820
    NIQSV+0.71140.66680.46790.20950.21900.24290.61380.62132.0375
    Proposed method0.84160.77680.48020.51850.41320.20730.90930.89071.1043
    Table 2. Comparison of different algorithms on three datasets
    FeatureIVCIETRMCL-3D
    PLCCSRCCRMSEPLCCSRCCRMSEPLCCSRCCRMSE
    Benford’s law0.79270.59510.54350.54000.38420.20000.71560.71371.8287
    DCT coefficients of variation0.2829-0.10960.74020.1451-0.02570.23340.73020.66781.7579
    GGD0.7135-0.43720.62300.33140.13190.23410.84880.83011.4001
    Table 3. Separate experiment of three features
    Yanli Li, Ruofeng Xu. No-Reference Image Quality Assessment of DIBR-Synthesized Images Based on Statistical Characteristics[J]. Laser & Optoelectronics Progress, 2022, 59(8): 0811001
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