ReUNet: Efficient deep learning for precise ore segmentation in mineral processing

Efficient ore segmentation plays a pivotal role in advancing mineral processing technologies. With the rise of computer vision, deep learning models like UNet have increasingly outperformed traditional methods in automatic segmentation tasks. Despite these advancements, the substantial computational...

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Veröffentlicht in:Computers & geosciences 2025-02, Vol.195, p.105773, Article 105773
Hauptverfasser: Wang, Chanjuan, Luo, Huilan, Wang, Jiyuan, Groom, Daniel
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Sprache:eng
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Zusammenfassung:Efficient ore segmentation plays a pivotal role in advancing mineral processing technologies. With the rise of computer vision, deep learning models like UNet have increasingly outperformed traditional methods in automatic segmentation tasks. Despite these advancements, the substantial computational demands of such models have hindered their widespread adoption in practical production environments. To overcome this limitation, we developed ReUNet, a lightweight and efficient model tailored for mineral image segmentation. ReUNet optimizes computational efficiency by selectively focusing on critical spatial and channel information, boasting only 1.7 million parameters and 24.88 GFLOPS. It delivers superior segmentation performance across three public datasets (CuV1, FeMV1, and Pellets) and achieves the most accurate average particle size estimation, closely matching the true values. Our findings underscore ReUNet’s potential as a highly effective tool for mineral image analysis, offering both precision and efficiency in processing mineral images. •Tops in ore image segmentation with fewest Params and Flops on CuV1, FeMv1 and Pellets.•Suggested a novel convolution function that effectively serves as a substitute for the conventional convolution.•Constructed an efficient segmentation network by replacing conventional convolutions with reconstructive convolutions.
ISSN:0098-3004
DOI:10.1016/j.cageo.2024.105773