Tongjai Yampaka, S. Vonganansup, Prinda Labcharoenwongs
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引用次数: 1
摘要
通常需要胸片(CXR)图像来评估肺的严重程度。然而,在COVID-19解释中,胸部x光片需要放射科专家的知识。本研究旨在利用回归互信息深度卷积神经元网络(RMI deep - cnn)的特征选择技术改进COVID-19 x射线图像分类。该数据集由219例COVID-19、500例病毒性肺炎和500例正常胸部x线图像组成。利用DCNNs对CXR图像进行全面的预训练,提取非常大的图像特征,从而降低模型的复杂性,减少模型的过拟合。因此,使用回归互信息选择关键特征,然后使用与softmax完全连接的层进行分类。对于两种可选系统的分类,比较了这些网络(ResNet152V2和InceptionV3)。两种方案的分类性能分别为92.21%、100%、90%和91.39%、100%、82.50%。此外,RMI deep - cnn不仅提高了准确率,而且减少了80%以上的可训练特征。该方法可显著提高COVID - 19分类的计算时间和模型精度。
Feature selection using regression mutual information deep convolution neuron networks for COVID-19 X-ray image classification
Chest radiography (CXR) image is usually required for lung severity assessment. However, chest X-rays in COVID-19 interpretation is required expert radiologists’ knowledge. This study aims to improve the COVID-19 X-ray image classification using feature selection technique by the regression mutual information deep convolution neuron networks (RMI Deep-CNNs). The dataset consists of 219 COVID-19, 500 viral pneumonias, and 500 normal chest X-ray images. CXR images were comprehensively pre-trained using DCNNs to extract the very large image features, then, the feature selection could reduce the complexity of a model and reduce the model overfitting. Therefore, the critical features were selected using regression mutual information followed by the fully connected with softmax layer for classification. For the classification of two alternative systems, these networks were compared (ResNet152V2 and InceptionV3). The classification performance for both schemes were 92.21%, 100%, 90% and 91.39%, 100%, 82.50%, respectively. In addition, RMI Deep-CNNs not only improve the accuracy but also reduce trainable features by over 80%. This approach tends to significantly improve the computation time and model accuracy for COVID‐19 classification.