CCCG: Self-supervised Color Constancy with Collaborative Generative Network

Color constancy provides stable color features for high-level computer vision tasks such as target recognition and autonomous driving. Existing deep learning-based color constancy algorithms using convolutional neural networks remove the illumination and obtain images under standard illumination. However, these methods suffer from insufficient training data and poor robustness in complex scenes. To address these issues, we propose a new paradigm: self-supervised color constancy with a collaborative generative network (CCCG). CCCG transforms the illumination estimation problem into a generation problem, reducing the solution space and enhancing algorithm robustness in complex scenes. Additionally, CCCG employs a self-supervised network structure, reducing dependence on light source label data. CCCG comprises two network structures: the Filter Network (FN) and the Illumination Network (IN). FN extracts features from the image and generates an image under standard illumination. IN incorporates the extracted physical light source information into the output results of FN and verifies the generated image. Experimental results on the Gehler-Shi and NUS-8 datasets show that CCCG outperforms current color constancy methods across various evaluation metrics and can be applied to other computer vision tasks requiring color constancy preprocessing.

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Publication Details

Published
2024-12-04
DOI
https://doi.org/10.1145/3636534.3694734
Citations
2
Primary Topic
Color Science and Applications
Type
article
Field-Weighted Citation Impact
0.68
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article

CCCG: Self-supervised Color Constancy with Collaborative Generative Network

Chenye Wu, RuShu Peng
2 citations
Color Science and Applications
0.68
article

CCCG: Self-supervised Color Constancy with Collaborative Generative Network

Chenye Wu, RuShu Peng
article en
2 citations

Abstract

Color constancy provides stable color features for high-level computer vision tasks such as target recognition and autonomous driving. Existing deep learning-based color constancy algorithms using convolutional neural networks remove the illumination and obtain images under standard illumination. However, these methods suffer from insufficient training data and poor robustness in complex scenes. To address these issues, we propose a new paradigm: self-supervised color constancy with a collaborative generative network (CCCG). CCCG transforms the illumination estimation problem into a generation problem, reducing the solution space and enhancing algorithm robustness in complex scenes. Additionally, CCCG employs a self-supervised network structure, reducing dependence on light source label data. CCCG comprises two network structures: the Filter Network (FN) and the Illumination Network (IN). FN extracts features from the image and generates an image under standard illumination. IN incorporates the extracted physical light source information into the output results of FN and verifies the generated image. Experimental results on the Gehler-Shi and NUS-8 datasets show that CCCG outperforms current color constancy methods across various evaluation metrics and can be applied to other computer vision tasks requiring color constancy preprocessing.

Chinese University of Hong Kong, Shenzhen (CN)
Openalex Percentile: Top 29%
Color Science and Applications
0.68
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