Classification of Adventitious Respiratory Sound Events: A Stratified Analysis

Tiago Fernandes, B. Rocha, D. Pessoa, P. Carvalho, Rui Pedro Paiva
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引用次数: 2

Abstract

Respiratory diseases are among the deadliest in the world. Adventitious respiratory sounds, such as wheezes and crackles, are commonly present in these pathologies. Automating the analysis of adventitious respiratory sounds can help health professionals monitor patients suffering from respiratory conditions. The ICBHI Respiratory Sound Database, a benchmark dataset in respiratory sound analysis, has large and diverse data available publicly. Given its diversity in data, a stratified analysis by recording equipment, age, sex, body-mass index (BMI), and clinical diagnosis is proposed in this article. Regarding the experiments, three machine learning algorithms (Support Vector Machine - SVM, Random Undersampling Boosting - RUSBoost, and Convolutional Neural Network - CNN) were employed in three tasks: 2-class crackles (crackles vs. others), 2-class wheezes (wheezes vs. others), and 3-class (crackles vs. wheezes vs. others). Overall, the CNNs achieved the best results in almost every category, except when the equipment was Littmann3200 or Meditron, where RUSBoost achieved better results. In terms of stratification categories, we observed significant differences in classification performance, namely in terms of equipment, where the Littmann3200 underperformed the other equipment analysed. In addition, in the 3-class task, the CNNs achieved better results in Male subjects than Female subjects. In terms of BMI, the CNN of the Overweight class in the 2-class wheeze task achieved worse results than the other two BMI classes (Normal and Obese).
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非定式呼吸声事件的分类:分层分析
呼吸系统疾病是世界上最致命的疾病之一。不确定的呼吸音,如喘息和噼啪声,通常出现在这些病症中。自动分析外来呼吸声音可以帮助卫生专业人员监测患有呼吸系统疾病的患者。ICBHI呼吸声数据库是呼吸声分析的基准数据集,拥有大量多样的公开数据。鉴于其数据的多样性,本文建议按记录设备、年龄、性别、身体质量指数(BMI)和临床诊断进行分层分析。在实验中,三种机器学习算法(支持向量机- SVM,随机欠采样增强- RUSBoost,卷积神经网络- CNN)被用于三个任务:2类裂纹(裂纹vs.其他人),2类喘息(喘息vs.其他人)和3类(裂纹vs.喘息vs.其他人)。总的来说,cnn在几乎所有类别中都取得了最好的成绩,除了当设备是Littmann3200或Meditron时,RUSBoost取得了更好的成绩。在分层类别方面,我们观察到分类性能的显着差异,即在设备方面,其中Littmann3200的表现低于分析的其他设备。此外,在3类任务中,cnn在男性科目上的成绩优于女性科目。在BMI方面,在2类喘息任务中,超重类的CNN比其他两个BMI类(正常和肥胖)的效果更差。
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