利用基于三维斑块的卷积神经网络对 CT 图像上的肺裂隙完整性进行量化,以制定肺气肿治疗计划。

IF 1.9 Q3 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING Journal of Medical Imaging Pub Date : 2024-05-01 Epub Date: 2024-05-29 DOI:10.1117/1.JMI.11.3.034502
Dallas K Tada, Pangyu Teng, Kalyani Vyapari, Ashley Banola, George Foster, Esteban Diaz, Grace Hyun J Kim, Jonathan G Goldin, Fereidoun Abtin, Michael McNitt-Gray, Matthew S Brown
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Lung lobe segmentations were performed to identify lobar regions, and the boundaries among these regions were used to construct approximate interlobar regions of interest (ROIs). The interlobar ROIs were annotated by expert image analysts to identify voxels where the fissure was present and create a reference ROI that excluded non-fissure voxels (where the fissure is incomplete). A CNN configured by nnU-Net was trained using 86 CT scans and their corresponding reference ROIs to segment the ROIs of left oblique fissure (LOF), right oblique fissure (ROF), and right horizontal fissure (RHF). For an independent test set of 43 cases, fissure integrity was quantified by mapping the segmented fissure ROI along the interlobar ROI. A fissure integrity score (FIS) was then calculated as the percentage of labeled fissure voxels divided by total voxels in the interlobar ROI. 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引用次数: 0

摘要

目的:需要评估肺裂隙的完整性,以确定肺气肿患者是否有完整的裂隙,是否适合支气管内瓣膜(EBV)治疗。我们提出了一种深度学习(DL)方法,利用基于三维斑块的卷积神经网络(CNN)分割裂隙,并在 CT 上定量评估裂隙的完整性,从而对严重肺气肿患者进行评估:方法:从重度肺气肿患者的匿名图像数据库中选取了 129 张 CT 扫描图像。进行肺叶分割以确定肺叶区域,并利用这些区域的边界构建近似的叶间兴趣区(ROI)。专家图像分析师对叶间 ROI 进行注释,以识别存在裂隙的体素,并创建一个排除非裂隙体素(裂隙不完整)的参考 ROI。使用 86 张 CT 扫描图像及其相应的参考 ROI 对 nnU-Net 配置的 CNN 进行了训练,以分割左斜裂隙 (LOF)、右斜裂隙 (ROF) 和右水平裂隙 (RHF) 的 ROI。在 43 例独立测试集中,通过沿叶间 ROI 映射分割的裂隙 ROI 来量化裂隙完整性。然后计算出裂隙完整性评分(FIS),即标记的裂隙体素百分比除以叶间 ROI 中的总体素。预测的 FIS(p-FIS)根据 CNN 输出进行量化,并对 p-FIS 和参考 FIS(r-FIS)进行比较统计分析:结果:对于 LOF、ROF 和 RHF,r-FIS 和 p-FIS 的测试集绝对误差平均值(±SD)分别为 4.0% (±4.1%)、6.0% (±9.3%) 和 12.2% (±12.5%):我们开发了一种 DL 方法来分割 CT 图像上的肺裂隙并准确量化 FIS。结论:DL方法可在CT图像上分割肺裂隙,并准确量化FIS,该方法有望帮助识别可从EBV治疗中获益的肺气肿患者。
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Quantifying lung fissure integrity using a three-dimensional patch-based convolutional neural network on CT images for emphysema treatment planning.

Purpose: Evaluation of lung fissure integrity is required to determine whether emphysema patients have complete fissures and are candidates for endobronchial valve (EBV) therapy. We propose a deep learning (DL) approach to segment fissures using a three-dimensional patch-based convolutional neural network (CNN) and quantitatively assess fissure integrity on CT to evaluate it in subjects with severe emphysema.

Approach: From an anonymized image database of patients with severe emphysema, 129 CT scans were used. Lung lobe segmentations were performed to identify lobar regions, and the boundaries among these regions were used to construct approximate interlobar regions of interest (ROIs). The interlobar ROIs were annotated by expert image analysts to identify voxels where the fissure was present and create a reference ROI that excluded non-fissure voxels (where the fissure is incomplete). A CNN configured by nnU-Net was trained using 86 CT scans and their corresponding reference ROIs to segment the ROIs of left oblique fissure (LOF), right oblique fissure (ROF), and right horizontal fissure (RHF). For an independent test set of 43 cases, fissure integrity was quantified by mapping the segmented fissure ROI along the interlobar ROI. A fissure integrity score (FIS) was then calculated as the percentage of labeled fissure voxels divided by total voxels in the interlobar ROI. Predicted FIS (p-FIS) was quantified from the CNN output, and statistical analyses were performed comparing p-FIS and reference FIS (r-FIS).

Results: The absolute percent error mean (±SD) between r-FIS and p-FIS for the test set was 4.0% (±4.1%), 6.0% (±9.3%), and 12.2% (±12.5%) for the LOF, ROF, and RHF, respectively.

Conclusions: A DL approach was developed to segment lung fissures on CT images and accurately quantify FIS. It has potential to assist in the identification of emphysema patients who would benefit from EBV treatment.

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来源期刊
Journal of Medical Imaging
Journal of Medical Imaging RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING-
CiteScore
4.10
自引率
4.20%
发文量
0
期刊介绍: JMI covers fundamental and translational research, as well as applications, focused on medical imaging, which continue to yield physical and biomedical advancements in the early detection, diagnostics, and therapy of disease as well as in the understanding of normal. The scope of JMI includes: Imaging physics, Tomographic reconstruction algorithms (such as those in CT and MRI), Image processing and deep learning, Computer-aided diagnosis and quantitative image analysis, Visualization and modeling, Picture archiving and communications systems (PACS), Image perception and observer performance, Technology assessment, Ultrasonic imaging, Image-guided procedures, Digital pathology, Biomedical applications of biomedical imaging. JMI allows for the peer-reviewed communication and archiving of scientific developments, translational and clinical applications, reviews, and recommendations for the field.
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