• Laser & Optoelectronics Progress
  • Vol. 58, Issue 20, 2010010 (2021)
Fangming Lan1, Zongju Peng1、2、*, Zhihua Lu1, Qichao Shi1, and Fen Chen2
Author Affiliations
  • 1Faculty of Information Science and Engineering, Ningbo University, Ningbo, Zhejiang 315201, China
  • 2School of Electrical and Electronic Engineering, Chongqing University of Technology, Chongqing 400054, China
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    DOI: 10.3788/LOP202158.2010010 Cite this Article Set citation alerts
    Fangming Lan, Zongju Peng, Zhihua Lu, Qichao Shi, Fen Chen. Color Constancy Algorithm of Microscopic Images Based on Autoencoder[J]. Laser & Optoelectronics Progress, 2021, 58(20): 2010010 Copy Citation Text show less
    Physical image of the microscope and camera. (a) Color temperature is 4500 K; (b) color temperature is 6300 K; (c) color temperature is 7000 K
    Fig. 1. Physical image of the microscope and camera. (a) Color temperature is 4500 K; (b) color temperature is 6300 K; (c) color temperature is 7000 K
    Statistics of the color cast coefficient. (a) Color temperature is 4500 K; (b) color temperature is 6300 K; (c) color temperature is 7000 K
    Fig. 2. Statistics of the color cast coefficient. (a) Color temperature is 4500 K; (b) color temperature is 6300 K; (c) color temperature is 7000 K
    RAW image generated by simulation. (a) GT; (b) CCM; (c) WB; (d) RAW
    Fig. 3. RAW image generated by simulation. (a) GT; (b) CCM; (c) WB; (d) RAW
    Color restoration results of different autoencoders. (a) Original image; (b) autoencoder; (c) UNet autoencoder
    Fig. 4. Color restoration results of different autoencoders. (a) Original image; (b) autoencoder; (c) UNet autoencoder
    Structure of the Inception
    Fig. 5. Structure of the Inception
    Structure of the UNet autoencoder
    Fig. 6. Structure of the UNet autoencoder
    Subjective results of different algorithms in microscope color constancy dataset. (a) RAW; (b) Ref.[8]; (c) Ref. [9]; (d) Ref. [10] ; (e) Ref. [11]; (f) Ref. [12]; (g) Ref. [13]; (h) Ref. [15] ; (i) ours; (j) GT
    Fig. 7. Subjective results of different algorithms in microscope color constancy dataset. (a) RAW; (b) Ref.[8]; (c) Ref. [9]; (d) Ref. [10] ; (e) Ref. [11]; (f) Ref. [12]; (g) Ref. [13]; (h) Ref. [15] ; (i) ours; (j) GT
    TBest25%MeanMediumTrimeanWorst25%
    101.782.402.012.127.05
    201.752.362.002.096.56
    301.622.322.362.016.34
    401.552.302.091.975.98
    501.432.291.911.935.52
    601.292.251.791.905.13
    701.112.231.761.854.98
    801.022.121.701.804.78
    900.922.011.671.724.05
    1001.042.081.691.754.28
    1101.232.181.721.794.78
    1201.112.211.751.825.06
    1301.332.221.891.925.98
    1401.422.261.941.986.25
    1501.482.351.982.016.43
    1601.532.392.022.066.52
    1701.622.352.052.096.75
    1801.722.452.082.147.12
    Table 1. Selection of threshold T
    AlgorithmBest25%MeanMediumTrimeanWorst25%
    GW[8]1.164.593.463.819.85
    WP[9]1.449.917.448.7821.27
    Quasi-unsupervised[14]--1.971.91----
    CM[16]0.502.251.591.745.13
    Ref.[15]0.522.051.50--4.48
    Ref.[12]0.462.181.481.645.03
    Ref.[17]0.502.391.611.745.67
    Ref.[17]( pretrained)0.462.351.551.735.62
    CNN[13]0.682.141.831.954.26
    UNet[19]1.132.562.042.235.17
    Ours0.922.011.671.724.05
    Table 2. Evaluation results of different algorithms in NUS-8 CC dataset
    AlgorithmBest25%MeanMediumTrimeanWorst25%
    GW[8]5.009.7010.0010.0013.70
    WP[9]2.209.106.707.8018.90
    SoG[10]2.307.306.806.9012.80
    GE[11]0.705.503.303.9013.80
    CC-GANs (Pix2Pix)[18]1.203.602.803.107.20
    CC-GANs(CycleGAN)[18]0.703.402.602.807.30
    CC-GANs (StarGAN)[18]1.705.704.905.2010.50
    CNN[13]0.802.602.002.104.00
    UNet[19]1.172.982.452.715.29
    Ours0.962.352.052.183.98
    Table 3. Evaluation results of different algorithms in RECommended CC dataset
    AlgorithmBest25%MeanMediumTrimeanWorst25%
    GW[8]2.265.774.815.0711.94
    WP[9]4.436.195.045.2110.60
    SoG[10]1.013.593.173.187.51
    GE[11]4.296.736.246.3911.42
    Ref.[12]1.433.703.173.267.55
    Ref.[15]3.575.705.545.539.76
    CNN[13]0.751.981.751.814.25
    UNet[19]0.671.561.341.453.16
    Ours0.430.970.750.792.08
    Table 4. Evaluation results of different algorithms in self-built microscope CC dataset
    Fangming Lan, Zongju Peng, Zhihua Lu, Qichao Shi, Fen Chen. Color Constancy Algorithm of Microscopic Images Based on Autoencoder[J]. Laser & Optoelectronics Progress, 2021, 58(20): 2010010
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