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arXiv 2212.14744eess.IVcs.CVcs.LG

深度CNN架构在肺炎检测中的比较研究

A Comparison Study of Deep CNN Architecture in Detecting of Pneumonia

Al Mohidur Rahman Porag, Md. Mahedi Hasan, Md Taimur Ahad

AI总结:

本研究旨在通过数字X射线图像自动诊断肺炎,比较了多种深度学习架构,发现DenseNet201在参数较少且计算时间合理的情况下达到95%的准确率,表现最优。

摘要:

肺炎是一种由细菌或病毒引起的呼吸道感染,影响大量人群,特别是在经常出现严重污染、不卫生生活条件和过度拥挤,以及医疗基础设施不足的发展中和贫困国家。胸腔积液是一种液体充满肺部并使呼吸复杂的疾病,由肺炎引起。早期发现肺炎对于确保治愈性护理和提高生存率至关重要。最常用于诊断肺炎的方法是胸部X射线成像。这项工作的目的是开发一种方法,用于在数字X射线图像中自动诊断细菌性和病毒性肺炎。本文首先介绍了作者的技术,然后对肺炎可靠诊断领域的最新发展进行了全面报告。在本研究中,我们微调了最先进的深度卷积神经网络来对植物疾病进行基于图像的分类,并测试了其性能。对深度学习架构进行了经验性比较。测试的架构包括VGG19、ResNet 152v2、Resnext101、Seresnet152、Mobilenettv2和具有201层的DenseNet。实验数据由两组组成:患病和健康的X射线图像。为了尽快对植物疾病采取适当行动,首选快速疾病识别模型。DenseNet201在我们的实验中没有表现出过拟合或性能下降,并且其准确率随着epoch数量的增加而提高。此外,DenseNet201以显著较少的参数和在合理的计算时间内实现了最先进的性能。该架构在测试准确率方面优于竞争对手,得分为95%。每个架构均使用Keras进行训练,并以Theano作为后端。

英文摘要:

Pneumonia, a respiratory infection brought on by bacteria or viruses, affects a large number of people, especially in developing and impoverished countries where high levels of pollution, unclean living conditions, and overcrowding are frequently observed, along with insufficient medical infrastructure. Pleural effusion, a condition in which fluids fill the lung and complicate breathing, is brought on by pneumonia. Early detection of pneumonia is essential for ensuring curative care and boosting survival rates. The approach most usually used to diagnose pneumonia is chest X-ray imaging. The purpose of this work is to develop a method for the automatic diagnosis of bacterial and viral pneumonia in digital x-ray pictures. This article first presents the authors' technique, and then gives a comprehensive report on recent developments in the field of reliable diagnosis of pneumonia. In this study, here tuned a state-of-the-art deep convolutional neural network to classify plant diseases based on images and tested its performance. Deep learning architecture is compared empirically. VGG19, ResNet with 152v2, Resnext101, Seresnet152, Mobilenettv2, and DenseNet with 201 layers are among the architectures tested. Experiment data consists of two groups, sick and healthy X-ray pictures. To take appropriate action against plant diseases as soon as possible, rapid disease identification models are preferred. DenseNet201 has shown no overfitting or performance degradation in our experiments, and its accuracy tends to increase as the number of epochs increases. Further, DenseNet201 achieves state-of-the-art performance with a significantly a smaller number of parameters and within a reasonable computing time. This architecture outperforms the competition in terms of testing accuracy, scoring 95%. Each architecture was trained using Keras, using Theano as the backend.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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