Kernel random forest with black hole optimization for heart diseases prediction using data fusion.

IF 3.5 4区 计算机科学 Q2 COMPUTER SCIENCE, ARTIFICIAL INTELLIGENCE PeerJ Computer Science Pub Date : 2024-11-29 eCollection Date: 2024-01-01 DOI:10.7717/peerj-cs.2364
Ala Saleh Alluhaidan, Mashael Maashi, Noha Negm, Shoayee Dlaim Alotaibi, Ibrahim R Alzahrani, Ahmed S Salama
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Abstract

In recent years, the Internet of Things has played a dominant role in various real-time problems and given solutions via sensor signals. Monitoring the patient health status of Internet of Medical Things (IoMT) facilitates communication between wearable sensor devices and patients through a wireless network. Heart illness is one of the reasons for the increasing death rate in the world. Diagnosing the disease is done by the fusion of multi-sensor device signals. Much research has been done in predicting the disease and treating it correctly. However, the issues are accuracy, consumption time, and inefficiency. To overcome these issues, this paper proposed an efficient algorithm for fusing the multi-sensor signals from wearable sensor devices, classifying the medical signal data and predicting heart disease using the hybrid technique of kernel random forest with the Black Hole Optimization algorithm (KRF-BHO). This KRF-BHO is used for sensor data fusion, while XG-Boost is used to classify echocardiogram images. Accuracy in the training phase with multi-sensor data fusion data set of proposed work KRF-BHO with XGBoost classifier is 94.12%; in the testing phase, the accuracy rate is 95.89%. Similarly, for the Cleveland Dataset, the proposed work KRF-BHO with XGBoost classifier is 95.78%; in the testing phase, the accuracy rate is 96.21%.

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核随机森林与黑洞优化的数据融合心脏病预测。
近年来,物联网在各种实时问题中发挥了主导作用,并通过传感器信号给出了解决方案。通过医疗物联网(Internet of Medical Things, IoMT)监测患者的健康状况,方便可穿戴传感器设备与患者通过无线网络进行通信。心脏病是世界上死亡率不断上升的原因之一。疾病的诊断是通过多传感器设备信号的融合来完成的。在预测疾病和正确治疗方面已经做了很多研究。然而,问题是准确性、消耗时间和效率低下。为了克服这些问题,本文提出了一种基于核随机森林与黑洞优化算法(KRF-BHO)的混合技术,对可穿戴传感器设备的多传感器信号进行融合,对医疗信号数据进行分类,并进行心脏病预测的高效算法。KRF-BHO用于传感器数据融合,XG-Boost用于超声心动图图像分类。基于XGBoost分类器的KRF-BHO在训练阶段与多传感器数据融合数据集的准确率为94.12%;在测试阶段,准确率为95.89%。同样,对于Cleveland数据集,使用XGBoost分类器提出的工作KRF-BHO为95.78%;在测试阶段,准确率为96.21%。
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来源期刊
PeerJ Computer Science
PeerJ Computer Science Computer Science-General Computer Science
CiteScore
6.10
自引率
5.30%
发文量
332
审稿时长
10 weeks
期刊介绍: PeerJ Computer Science is the new open access journal covering all subject areas in computer science, with the backing of a prestigious advisory board and more than 300 academic editors.
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