基于深度学习的头部危险器官分割用于核磁共振辅助放射治疗计划

L. Ruskó, M. Capala, V. Czipczer, B. Kolozsvári, B. Deák-Karancsi, R. Czabány, B. Gyalai, T. Tan, Z. Végváry, E. Borzasi, Zsófia Együd, Renáta Kószó, Viktor R. Paczona, Emese Fodor, C. Bobb, C. Cozzini, S. Kaushik, Barbara Darázs, G. Verduijn, R. Pearson, R. Maxwell, H. Mccallum, J. Tamames, K. Hideghéty, S. Petit, F. Wiesinger
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引用次数: 3

摘要

MR图像中危险器官(OAR)的分割具有多种临床应用;包括放射治疗计划。本文提出了一种基于深度学习的头部区域15个结构的分割方法。该方法首先对三个平面(轴面、冠状面、矢状面)分别应用二维U-Net模型对结构进行大致分割。然后,将二维模型的结果结合到融合预测中,对结构的三维边界框进行定位。最后,对边界框的体积应用三维U-Net来确定结构的精确轮廓。该模型在公共数据集上进行训练,并在公共和私人数据集上进行评估,这些数据集包含头颈部区域的t2加权MR扫描。对于所有病例,每个结构的轮廓都是由专家临床描绘师训练的操作员定义的。实验结果表明,该框架能够准确、高效地对各种结构进行定位和分割。并对该方法生成的轮廓进行了定性评价。大多数(92%)的分割OARs被认为对放射治疗有临床价值
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Deep-Learning-based Segmentation of Organs-at-Risk in the Head for MR-assisted Radiation Therapy Planning
Segmentation of organs-at-risk (OAR) in MR images has several clinical applications; including radiation therapy (RT) planning. This paper presents a deep-learning-based method to segment 15 structures in the head region. The proposed method first applies 2D U-Net models to each of the three planes (axial, coronal, sagittal) to roughly segment the structure. Then, the results of the 2D models are combined into a fused prediction to localize the 3D bounding box of the structure. Finally, a 3D U-Net is applied to the volume of the bounding box to determine the precise contour of the structure. The model was trained on a public dataset and evaluated on both public and private datasets that contain T2-weighted MR scans of the head-and-neck region. For all cases the contour of each structure was defined by operators trained by expert clinical delineators. The evaluation demonstrated that various structures can be accurately and efficiently localized and segmented using the presented framework. The contours generated by the proposed method were also qualitatively evaluated. The majority (92%) of the segmented OARs was rated as clinically useful for radiation
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