Department of Ophthalmology and Visual Science, Tokyo Medical and Dental University, Tokyo, Japan.
Laboratory for Medical Science Mathematics, Department of Biological Sciences, Graduate School of Science, The University of Tokyo, Tokyo, Japan; Department of Medical Science Mathematics, Tokyo Medical and Dental University, Tokyo, Japan; Laboratory for Medical Science Mathematics, RIKEN Center for Integrative Medical Sciences, Yokohama, Japan.
Ophthalmol Retina. 2021 Dec;5(12):1235-1244. doi: 10.1016/j.oret.2021.02.006. Epub 2021 Feb 18.
To determine whether eyes with pathologic myopia can be identified and whether each type of myopic maculopathy lesion on fundus photographs can be diagnosed by deep learning (DL) algorithms.
A DL algorithm was developed to recognize myopic maculopathy features and to categorize the myopic maculopathy automatically.
We examined 7020 fundus images from 4432 highly myopic eyes obtained from the Advanced Clinical Center for Myopia.
Deep learning (DL) algorithms were developed to recognize the key features of myopic maculopathy with 5176 fundus images. These algorithms were also used to develop a Meta-analysis for Pathologic Myopia (META-PM) study categorizing system (CS) by adding a specific processing layer. Models and the system were evaluated by 1844 fundus image. The area under the receiver operating characteristic curve (AUC), sensitivity, and specificity were used to determine the performance of each DL algorithm. The rate of correct predictions was used to determine the performance of the META-PM study CS.
Four trained DL models were able to recognize the lesions of myopic maculopathy accurately with high sensitivity and specificity. The META-PM study CS also showed a high accuracy and was qualified to be used in a semiautomated way during screening for myopic maculopathy in highly myopic eyes.
The sensitivity of the DL models was 84.44% for diffuse atrophy, 87.22% for patchy atrophy, 85.10% for macular atrophy, and 37.07% for choroidal neovascularization, and the AUC values were 0.970, 0.978, 0.982, and 0.881, respectively. The rate of total correct predictions from the META-PM study CS was 87.53%, with rates of 90.18%, 95.28%, 97.50%, and 91.14%, respectively, for each type of lesion. The META-PM study CS showed an overall rate of 92.08% in detecting pathologic myopia correctly, which was defined as having myopic maculopathy equal to or more serious than diffuse atrophy.
The novel DL models and system can achieve high sensitivity and specificity in identifying the different types of lesions of myopic maculopathy. These results will assist in the screening for pathologic myopia and subsequent protection of patients against low vision and blindness caused by myopic maculopathy.
确定病理性近视患者能否被识别,眼底照片上的每一种近视性黄斑病变是否都可以通过深度学习(DL)算法来诊断。
开发了一种 DL 算法来识别近视性黄斑病变特征,并对近视性黄斑病变进行自动分类。
我们检查了来自高度近视先进临床中心的 4432 只高度近视眼中的 7020 张眼底图像。
使用 5176 张眼底图像开发了一种深度学习(DL)算法来识别近视性黄斑病变的关键特征。通过添加特定的处理层,这些算法还用于开发病理性近视的 Meta 分析(META-PM)研究分类系统(CS)。使用 1844 张眼底图像对模型和系统进行评估。使用受试者工作特征曲线下的面积(AUC)、灵敏度和特异性来确定每个 DL 算法的性能。正确预测率用于确定 META-PM 研究 CS 的性能。
四种经过训练的 DL 模型能够准确识别近视性黄斑病变的病变,具有较高的灵敏度和特异性。META-PM 研究 CS 也具有较高的准确性,可用于高度近视眼中近视性黄斑病变的筛查。
DL 模型对弥漫性萎缩的灵敏度为 84.44%,对斑片状萎缩的灵敏度为 87.22%,对黄斑萎缩的灵敏度为 85.10%,对脉络膜新生血管的灵敏度为 37.07%,AUC 值分别为 0.970、0.978、0.982 和 0.881。META-PM 研究 CS 的总正确预测率为 87.53%,对每种病变的正确预测率分别为 90.18%、95.28%、97.50%和 91.14%。META-PM 研究 CS 正确检测病理性近视的总体率为 92.08%,定义为近视性黄斑病变等于或比弥漫性萎缩更严重。
新型 DL 模型和系统在识别近视性黄斑病变的不同类型病变方面具有较高的灵敏度和特异性。这些结果将有助于病理性近视的筛查,并随后保护患者免受近视性黄斑病变引起的低视力和失明。