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基于生理信号的磨牙症识别的计算集成专家系统分类

Computational ensemble expert system classification for the recognition of bruxism using physiological signals.

作者信息

Tripathi Pragati, Ansari M A, Gandhi Tapan Kumar, Albalwy Faisal, Mehrotra Rajat, Mishra Deepak

机构信息

Department of Electrical Engineering, Gautam Buddha University, Greater Noida, India.

Department of Electrical Engineering, Indian Institute of Technology Delhi, India.

出版信息

Heliyon. 2024 Feb 10;10(4):e25958. doi: 10.1016/j.heliyon.2024.e25958. eCollection 2024 Feb 29.

DOI:10.1016/j.heliyon.2024.e25958
PMID:38390100
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10881886/
Abstract

This study aimed to develop an automatic diagnostic scheme for bruxism, a sleep-related disorder characterized by teeth grinding and clenching. The aim was to improve on existing methods, which have been proven to be inefficient and challenging. We utilized a novel hybrid machine learning classifier, facilitated by the Weka tool, to diagnose bruxism from biological signals. The study processed and examined these biological signals by calculating the power spectral density. Data were categorized into normal or bruxism categories based on the EEG channel (C4-A1), and the sleeping phases were classified into wake (w) and rapid eye movement (REM) stages using the ECG channel (ECG1-ECG2). The classification resulted in a maximum specificity of 93% and an accuracy of 95% for the EEG-based diagnosis. The ECG-based classification yielded a supreme specificity of 87% and an accuracy of 96%. Furthermore, combining these phases using the EMG channel (EMG1-EMG2) achieved the highest specificity of 95% and accuracy of 98%. The ensemble Weka tool combined all three physiological signals EMG, ECG, and EEG, to classify the sleep stages and subjects. This integration increased the specificity and accuracy to 97% and 99%, respectively. This indicates that a more precise bruxism diagnosis can be obtained by including all three biological signals. The proposed method significantly improves bruxism diagnosis accuracy, potentially enhancing automatic home monitoring systems for this disorder. Future studies may expand this work by applying it to patients for practical use.

摘要

本研究旨在开发一种针对磨牙症的自动诊断方案,磨牙症是一种与睡眠相关的疾病,其特征为牙齿研磨和咬紧。目的是改进现有方法,事实证明这些方法效率低下且具有挑战性。我们利用由Weka工具辅助的新型混合机器学习分类器,从生物信号中诊断磨牙症。该研究通过计算功率谱密度来处理和检查这些生物信号。根据脑电图通道(C4-A1)将数据分类为正常或磨牙症类别,并使用心电图通道(ECG1-ECG2)将睡眠阶段分类为清醒(w)和快速眼动(REM)阶段。基于脑电图的诊断分类结果显示,最大特异性为93%,准确率为95%。基于心电图的分类产生了87%的最高特异性和96%的准确率。此外,使用肌电图通道(EMG1-EMG2)合并这些阶段,实现了95%的最高特异性和98%的准确率。集成的Weka工具结合了肌电图、心电图和脑电图这三种生理信号,对睡眠阶段和受试者进行分类。这种整合分别将特异性和准确率提高到了97%和99%。这表明通过纳入所有三种生物信号可以获得更精确的磨牙症诊断。所提出的方法显著提高了磨牙症诊断的准确性,有可能增强针对这种疾病的自动家庭监测系统。未来的研究可以通过将其应用于患者实际使用来扩展这项工作。

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