Kai Chen, Yu Liu, Xuqi Wang, Shanwen Zhang, Chuanghui Zhang
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引用次数: 0
摘要
本文旨在利用卷积神经网络(CNN)对胸部x射线(CXR)图像进行胸部疾病的自动诊断。大多数现有方法通常采用全局学习策略,并使用具有小卷积核的CNN进行胸部疾病分类。然而,不相关的噪声区域可能会影响全局学习策略;较小的卷积核只能捕获较少的判别特征。为了解决上述问题,我们构建了一个多特征融合神经网络(MFCNet),该网络可以充分利用全局特征和加权的局部特征。具体来说,全局特征首先由全局分支生成。将全局特征与肺脏区域生成器(LHRG)识别的心肺区域掩模相乘,生成加权局部特征。最后,融合分支融合了全局特征和加权局部特征,弥补了全局分支和局部分支缺失的判别特征,使胸椎疾病分类的特征表现更好。在NIH chestx - x - 14数据集上进行的大量实验表明,与最先进的方法相比,MFCNet模型具有优越的性能(平均AUC=0.844)。源代码发布在https://github.com/Warrior996/MFCNet。
MFCNet: Multi-Feature Fusion Neural Network for Thoracic Disease Classification
This paper aims to automatically diagnose thoracic diseases on chest X-ray (CXR) images using convolutional neural networks (CNN). Most existing approaches typically employ a global learning strategy and use CNN with small convolutional kernels for thoracic disease classification. However, irrelevant noisy regions may affect the global learning strategy; small convolutional kernels can only capture fewer discriminant features. To address the above problems, we construct a multi-feature fusion neural network (MFCNet), which can fully use the global and weighted local features. Specifically, the global features are first generated by the global branch. Weighted local features are generated by multiplying the global feature and the heart-lung region mask identified by the Lung-heart Region Generator (LHRG). At last, the fusion branch integrates the global and weighted local features to complement the lost discriminative feature of the global branch and the local branch, thus enabling a better feature presentation for thoracic disease classification. Extensive experiments on the NIH ChestX-ray 14 dataset demonstrate that the MFCNet model achieves superior performance (average AUC=0.844) compared to state-of-the-art methods. Source code is released in https://github.com/Warrior996/MFCNet.