Semantic Segmentation of Eight Regions of Upper and Lower Limb Bones Using 3D U-Net in Whole-body CT Images

Purpose: Automated analysis of skeletal muscle in whole-body computed tomography (CT) images uses bone information, but bone segmentation including the epiphysis is not achieved. The purpose of this research was the semantic segmentation of eight regions of upper and lower limb bones including the e...

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Published inJapanese Journal of Radiological Technology Vol. 76; no. 11; pp. 1125 - 1132
Main Authors Kamiya, Naoki, Wakamatsu, Yuichi, Zhou, Xiangrong, Hara, Takeshi, Fujita, Hiroshi
Format Journal Article
LanguageJapanese
Published Kyoto Japanese Society of Radiological Technology 2020
Japan Science and Technology Agency
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ISSN0369-4305
1881-4883
DOI10.6009/jjrt.2020_JSRT_76.11.1125

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Abstract Purpose: Automated analysis of skeletal muscle in whole-body computed tomography (CT) images uses bone information, but bone segmentation including the epiphysis is not achieved. The purpose of this research was the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images. Our targets were left and right upper arms, forearms, thighs, and lower legs. Method: We connected two 3D U-Nets in cascade for segmentation of eight upper and lower limb bones in whole-body CT images. The first 3D U-Net was used for skeleton segmentation in whole-body CT images, and the second 3D U-Net was used for eight upper and lower limb bones’ segmentation in skeleton segmentation results. Thirty cases of whole-body CT images were used in the experiment, and the segmentation results were evaluated using Dice coefficient with 3-fold cross-validation. Result: The mean Dice coefficient was 93% in the left and right upper arms, 89% in the left and right forearms, 95% in the left and right thighs, and 94% in the left and right lower legs. Conclusion: Although the accuracy of the segmentation results of relatively small bones remains a challenge, the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images has been achieved.
AbstractList Automated analysis of skeletal muscle in whole-body computed tomography (CT) images uses bone information, but bone segmentation including the epiphysis is not achieved. The purpose of this research was the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images. Our targets were left and right upper arms, forearms, thighs, and lower legs.PURPOSEAutomated analysis of skeletal muscle in whole-body computed tomography (CT) images uses bone information, but bone segmentation including the epiphysis is not achieved. The purpose of this research was the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images. Our targets were left and right upper arms, forearms, thighs, and lower legs.We connected two 3D U-Nets in cascade for segmentation of eight upper and lower limb bones in whole-body CT images. The first 3D U-Net was used for skeleton segmentation in whole-body CT images, and the second 3D U-Net was used for eight upper and lower limb bones' segmentation in skeleton segmentation results. Thirty cases of whole-body CT images were used in the experiment, and the segmentation results were evaluated using Dice coefficient with 3-fold cross-validation.METHODWe connected two 3D U-Nets in cascade for segmentation of eight upper and lower limb bones in whole-body CT images. The first 3D U-Net was used for skeleton segmentation in whole-body CT images, and the second 3D U-Net was used for eight upper and lower limb bones' segmentation in skeleton segmentation results. Thirty cases of whole-body CT images were used in the experiment, and the segmentation results were evaluated using Dice coefficient with 3-fold cross-validation.The mean Dice coefficient was 93% in the left and right upper arms, 89% in the left and right forearms, 95% in the left and right thighs, and 94% in the left and right lower legs.RESULTThe mean Dice coefficient was 93% in the left and right upper arms, 89% in the left and right forearms, 95% in the left and right thighs, and 94% in the left and right lower legs.Although the accuracy of the segmentation results of relatively small bones remains a challenge, the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images has been achieved.CONCLUSIONAlthough the accuracy of the segmentation results of relatively small bones remains a challenge, the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images has been achieved.
Purpose: Automated analysis of skeletal muscle in whole-body computed tomography (CT) images uses bone information, but bone segmentation including the epiphysis is not achieved. The purpose of this research was the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images. Our targets were left and right upper arms, forearms, thighs, and lower legs. Method: We connected two 3D U-Nets in cascade for segmentation of eight upper and lower limb bones in whole-body CT images. The first 3D U-Net was used for skeleton segmentation in whole-body CT images, and the second 3D U-Net was used for eight upper and lower limb bones’ segmentation in skeleton segmentation results. Thirty cases of whole-body CT images were used in the experiment, and the segmentation results were evaluated using Dice coefficient with 3-fold cross-validation. Result: The mean Dice coefficient was 93% in the left and right upper arms, 89% in the left and right forearms, 95% in the left and right thighs, and 94% in the left and right lower legs. Conclusion: Although the accuracy of the segmentation results of relatively small bones remains a challenge, the semantic segmentation of eight regions of upper and lower limb bones including the epiphysis in whole-body CT images has been achieved.
Author Fujita, Hiroshi
Zhou, Xiangrong
Hara, Takeshi
Wakamatsu, Yuichi
Kamiya, Naoki
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References_xml – reference: 2) Kamiya N, Zhou X, Chen H, et al. Automated segmentation of psoas major muscle in X-ray CT images by use of a shape model: preliminary study. Radiol Phys Technol 2012; 5(1): 5-14.
– reference: 6) 溝江俊太郎,大竹義人,宮本拓馬,他.ロバストなCTセグメンテーションと多剛体 2D-3D レジストレーションを用いた足部・足関節三次元動態の全自動解析.信学技報 2020; 119(399): 37-42.
– reference: 7) Çiçek Ö, Abdulkadir A, Lienkamp SS, et al. 3D U-Net: Learning dense volumetric segmentation from sparse annotation. Proc. Medical Image Computing and Computer-Assisted Intervention–MICCAI 2016; 424-432.
– reference: 1) Iazzetti G. The skeletal muscles. Human Anatomy. TAJ Books International LLP, Cobham, Surrey, 2008: 33.
– reference: 9) 二村幸孝,出口大輔,北坂孝幸,他.PLUTO:医用画像診断支援共通プラットフォーム.MED IMAG TECH 2008; 26(3): 187-191.
– reference: 11) Kingma DP, Ba JL. ADAM: A method for stochastic optimization. The 3rd International Conference on Learning Representations (ICLR) 2015.
– reference: 3) Kamiya N, Oshima A, Asano E, et al. Initial study on the classification of amyotrophic diseases using texture analysis and deep learning in whole-body CT images. Proceedings Volume 11050, International Forum on Medical Imaging in Asia 2019; 110500X. doi: https://doi.org/10.1117/12.2518199.
– reference: 4) Bieth M, Peter L, Nekolla SG, et al. Segmentation of skeleton and organs in whole-body CT images via iterative trilateration. IEEE Trans Med Imaging 2017; 36(11): 2276-2286.
– reference: 8) 佐藤嘉伸.わかりやすい3次元画像処理の基礎:等方ボクセルの利点について.画像診断 2000; 20(5): 499-508.
– reference: 10) 山口昌太郎,周 向栄,陳  華岳,他.CT 画像における体幹部の解剖学的構造のデータベース構築法に関する考察.信学技報 2013; 112(411): 83-88.
– reference: 5) Belal SL, Sadik M, Kaboteh R, et al. Deep learning for segmentation of 49 selected bones in CT scans: First step in automated PET/CT-based 3D quantification of skeletal metastases. Eur J Radiol 2019; 113: 89-95.
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Snippet Purpose: Automated analysis of skeletal muscle in whole-body computed tomography (CT) images uses bone information, but bone segmentation including the...
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SubjectTerms 3D U-Net
bone
Bones
Computed tomography
Epiphysis
Fossils
Image processing
Image segmentation
Leg
Medical imaging
Muscles
Semantic segmentation
Semantics
Skeletal muscle
Skeleton
Target recognition
Three dimensional bodies
whole-body computed tomography
Title Semantic Segmentation of Eight Regions of Upper and Lower Limb Bones Using 3D U-Net in Whole-body CT Images
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