Application of convolutional neural networks to define Fuchs endothelial dystrophy

S. Shukhaev, E.A. Mordovtseva, E. Pustozerov, S. S. Kudlakhmedov
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Abstract

Purpose. To evaluate the application of convolutional neural networks for the automatic detection of Fuchs' dystrophy. Material and methods. The study included 700 biomicroscopic images of the corneal endothelium (Tomey EM-3000) randomly selected from the database of the Saint-Petersburg brunch of the S. Fyodorov Eye Microsurgery Federal State Institution. At the first stage, the images were divided into 2 groups. The first group included images with the presence of Fuchs' dystrophy, the second – another pathology or a healthy cornea. The corneal endothelial cell density images were divided into three categories: training, validation, and test datasets. In our study we tested various architectures of convolutional neural networks: ResNet18, ResNet50, VGG16, VGG19 and GoogleNet. Results. The approbation of the neural network on the test sample has given the following values of the F-measure: ResNet18: 0.985; ResNet50: 1,000; VGG16: 0.940; VGG19: 0.990; GoogleNet: 0.987. Pre-trained network ResNet50 performed best with frozen layers, Adam optimizer, cross-entropy as a loss function, and a training step of 0.000005. Conclusion. The use of convolutional neural networks for the automatic detection of Fuchs' dystrophy can be successfully implemented as part of a doctor's decision support system. ResNet50 showed the best results among all types of models and did not give a single error on the test sample, which indicates the high efficiency of using this network in the classification algorithm for corneal endothelial images. Keywords: artificial intelligence, Fuchs corneal dystrophy, convolutional neural networks
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应用卷积神经网络定义Fuchs内皮营养不良
目的。评价卷积神经网络在Fuchs营养不良症自动检测中的应用。材料和方法。该研究包括700张角膜内皮的生物显微图像(Tomey EM-3000),随机从S. Fyodorov眼科显微外科联邦国家机构的圣彼得堡早餐厅数据库中选择。在第一阶段,将图像分为2组。第一组包括富克斯营养不良的图像,第二组是另一种病理或健康的角膜。将角膜内皮细胞密度图像分为三类:训练数据集、验证数据集和测试数据集。在我们的研究中,我们测试了各种卷积神经网络架构:ResNet18, ResNet50, VGG16, VGG19和GoogleNet。结果。神经网络对测试样本的认可给出了以下f测度值:ResNet18: 0.985;ResNet50: 1000;VGG16: 0.940;VGG19: 0.990;GoogleNet: 0.987。预训练网络ResNet50在冻结层、Adam优化器、交叉熵作为损失函数、训练步长为0.000005的情况下表现最好。结论。使用卷积神经网络自动检测富氏营养不良症可以成功地实现作为医生的决策支持系统的一部分。在所有类型的模型中,ResNet50的结果是最好的,并且在测试样本上没有给出一个错误,这表明使用该网络进行角膜内皮图像分类算法的效率很高。关键词:人工智能,Fuchs角膜营养不良,卷积神经网络
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