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<p>Segmenting the spine from CT images is crucial for diagnosing and treating spine-related conditions but remains challenging due to the spine’s complex anatomy and imaging artifacts. This study introduces a novel encoder-decoder-based deep learning approach, named LinkNet-152, tailored for automated spine segmentation. The model integrates a modified EfficientNetB7 encoder with attention modules to enhance feature extraction by focusing on regions of interest. The decoder leverages a modified LinkNet architecture, replacing ResNet34 with the deeper ResNet152 to improve feature extraction and segmentation accuracy. Additionally, gradient sensitivity-based pruning is applied to optimize the model’s complexity and computational efficiency. Evaluated on the VerSe 2019 and VerSe 2020 datasets, the proposed model achieves superior performance, with a Dice coefficient of 96.85% and a Jaccard index of 95.37%, outperforming state-of-the-art methods. These results highlight the model’s effectiveness in addressing the challenges of spine segmentation and its potential to advance clinical applications.</p>

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Attention LinkNet-152: a novel encoder-decoder based deep learning network for automated spine segmentation

  • 期刊论文

  • 出版模式：

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  • 发表日期：

    2025年4月16日

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  • Aqsa Dastgir,
  • Wang Bin,
  • Muhammad Usman Saeed,
  • Jinfang Sheng,
  • Luo Site,
  • Haseeb Hassan

摘要

Segmenting the spine from CT images is crucial for diagnosing and treating spine-related conditions but remains challenging due to the spine’s complex anatomy and imaging artifacts. This study introduces a novel encoder-decoder-based deep learning approach, named LinkNet-152, tailored for automated spine segmentation. The model integrates a modified EfficientNetB7 encoder with attention modules to enhance feature extraction by focusing on regions of interest. The decoder leverages a modified LinkNet architecture, replacing ResNet34 with the deeper ResNet152 to improve feature extraction and segmentation accuracy. Additionally, gradient sensitivity-based pruning is applied to optimize the model’s complexity and computational efficiency. Evaluated on the VerSe 2019 and VerSe 2020 datasets, the proposed model achieves superior performance, with a Dice coefficient of 96.85% and a Jaccard index of 95.37%, outperforming state-of-the-art methods. These results highlight the model’s effectiveness in addressing the challenges of spine segmentation and its potential to advance clinical applications.