WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer

Abstract The vertebral foramen, lamina, and vertebral body are three critical components of the spine structure, essential for maintaining spinal connectivity and stability. Accurately segmenting lumbar structures such as the vertebral body, vertebral foramen, and lamina in MRI cross-sections helps...

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Main Authors: Jing Liu, Guodong Suo, Fengqing Jin, Yuee Zhou, Jianlan Yang
Format: Article
Language:English
Published: Nature Portfolio 2024-11-01
Series:Scientific Reports
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Online Access:https://doi.org/10.1038/s41598-024-79244-y
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author Jing Liu
Guodong Suo
Fengqing Jin
Yuee Zhou
Jianlan Yang
author_facet Jing Liu
Guodong Suo
Fengqing Jin
Yuee Zhou
Jianlan Yang
author_sort Jing Liu
collection DOAJ
description Abstract The vertebral foramen, lamina, and vertebral body are three critical components of the spine structure, essential for maintaining spinal connectivity and stability. Accurately segmenting lumbar structures such as the vertebral body, vertebral foramen, and lamina in MRI cross-sections helps doctors better understand and diagnose the pathological causes of spine-related diseases. This study presents a multi-structure semantic segmentation method for vertebral transverse section MRI slices using WGAN with a residual U-Net and clustered Transformer. The generator network was replaced with a combination of a residual U-Net and a clustered Transformer-based segmentation network. The enhanced U-Net encoder, utilizing dilated convolutions and residual structures, improved multi-scale feature extraction capabilities. Meanwhile, the clustered Transformer structure, with reduced progressive linear complexity, ensured the extraction of global positional information. The results of multiple experiments show that the Dice coefficient for vertebral body segmentation increased by 3.1%, the Hausdorff distance decreased by 0.6 mm, mIOU improved by 4.1–96.2%, and PPV increased by 2.0–98.8% compared to mainstream segmentation models. These improvements are statistically significant (p < 0.05).Ablation experiments further validated the effectiveness of the proposed enhanced modules in improving segmentation accuracy for the three target structures.
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publishDate 2024-11-01
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spelling doaj-art-cfa39c653c494af7a4bd49fa8b3f8f1c2024-11-17T12:24:09ZengNature PortfolioScientific Reports2045-23222024-11-0114111810.1038/s41598-024-79244-yWGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformerJing Liu0Guodong Suo1Fengqing Jin2Yuee Zhou3Jianlan Yang4School of Medical Information Engineering, Gansu University of Chinese MedicineSchool of Medical Information Engineering, Gansu University of Chinese MedicineSchool of Medical Information Engineering, Gansu University of Chinese MedicineSchool of Medical Information Engineering, Gansu University of Chinese MedicineOrthopedic Traumatology HospitalAbstract The vertebral foramen, lamina, and vertebral body are three critical components of the spine structure, essential for maintaining spinal connectivity and stability. Accurately segmenting lumbar structures such as the vertebral body, vertebral foramen, and lamina in MRI cross-sections helps doctors better understand and diagnose the pathological causes of spine-related diseases. This study presents a multi-structure semantic segmentation method for vertebral transverse section MRI slices using WGAN with a residual U-Net and clustered Transformer. The generator network was replaced with a combination of a residual U-Net and a clustered Transformer-based segmentation network. The enhanced U-Net encoder, utilizing dilated convolutions and residual structures, improved multi-scale feature extraction capabilities. Meanwhile, the clustered Transformer structure, with reduced progressive linear complexity, ensured the extraction of global positional information. The results of multiple experiments show that the Dice coefficient for vertebral body segmentation increased by 3.1%, the Hausdorff distance decreased by 0.6 mm, mIOU improved by 4.1–96.2%, and PPV increased by 2.0–98.8% compared to mainstream segmentation models. These improvements are statistically significant (p < 0.05).Ablation experiments further validated the effectiveness of the proposed enhanced modules in improving segmentation accuracy for the three target structures.https://doi.org/10.1038/s41598-024-79244-yResidual U-NetClustered transformerLumbar spine MRIWGANMulti-structure
spellingShingle Jing Liu
Guodong Suo
Fengqing Jin
Yuee Zhou
Jianlan Yang
WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer
Scientific Reports
Residual U-Net
Clustered transformer
Lumbar spine MRI
WGAN
Multi-structure
title WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer
title_full WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer
title_fullStr WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer
title_full_unstemmed WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer
title_short WGAN-based multi-structure segmentation of vertebral cross-section MRI using ResU-Net and clustered transformer
title_sort wgan based multi structure segmentation of vertebral cross section mri using resu net and clustered transformer
topic Residual U-Net
Clustered transformer
Lumbar spine MRI
WGAN
Multi-structure
url https://doi.org/10.1038/s41598-024-79244-y
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AT guodongsuo wganbasedmultistructuresegmentationofvertebralcrosssectionmriusingresunetandclusteredtransformer
AT fengqingjin wganbasedmultistructuresegmentationofvertebralcrosssectionmriusingresunetandclusteredtransformer
AT yueezhou wganbasedmultistructuresegmentationofvertebralcrosssectionmriusingresunetandclusteredtransformer
AT jianlanyang wganbasedmultistructuresegmentationofvertebralcrosssectionmriusingresunetandclusteredtransformer