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Accepted for/Published in: JMIR Medical Informatics

Date Submitted: Jul 13, 2022
Date Accepted: Oct 22, 2022
Date Submitted to PubMed: Oct 24, 2022

The final, peer-reviewed published version of this preprint can be found here:

Motion Artifact Reduction in Electrocardiogram Signals Through a Redundant Denoising Independent Component Analysis Method for Wearable Health Care Monitoring Systems: Algorithm Development and Validation

Castaño Usuga FA, Gissel C, Hernández Valdivieso AM

Motion Artifact Reduction in Electrocardiogram Signals Through a Redundant Denoising Independent Component Analysis Method for Wearable Health Care Monitoring Systems: Algorithm Development and Validation

JMIR Med Inform 2022;10(11):e40826

DOI: 10.2196/40826

PMID: 36274196

PMCID: 9736764

Motion Artifact Reduction in Electrocardiographic Signals through Redundant Denoising Independent Component Analysis Method for Wearable Health Care Monitoring Systems

  • Fabian Andres Castaño Usuga; 
  • Christian Gissel; 
  • Alher Mauricio Hernández Valdivieso

ABSTRACT

Background:

The quest for improved diagnosis and treatment in home health care models has led to the development of wearable medical devices for outpatient vital signs monitoring. An accurate signal and a high diagnostic yield are critical for the cost-effectiveness of wearable health care monitoring systems and their widespread application in resource-constrained environments. Despite technological advances, the information acquired by these devices can be contaminated by Motion Artifacts leading to misdiagnosis or repeated procedures with increases in associated costs. This makes it necessary to develop methods to improve the quality of the signal acquired by these devices.

Objective:

This article presents a new method to reduce Motion Artifacts in Electrocardiographic signals.

Methods:

The method is based on the redundant and simultaneous acquisition of Electrocardiographic signals and movement information, multichannel processing, and performance assessment considering the information contained in the signal waveform.

Results:

The proposed method significantly reduced Motion Artifacts, showing better performance, and introducing a smaller distortion in the interest signal compared to other methods. Finally, the performance of the proposed method was compared with Wavelet Shrinkage and the Wavelet Independent Component Analysis through the assessment of Signal-to-Noise Ratio, Dynamic Time Warping, and a proposed index based on the signal waveform evaluation with Ensemble Average Electrocardiographic.

Conclusions:

A more accurate signal substantially improves the diagnostic yield of wearable devices. A better yield improves the devices' cost-effectiveness and contributes to their widespread application. This is an advance in the path to converting wearable devices into medical monitoring tools that can be used to support the diagnosis and monitoring of cardiovascular diseases. Clinical Trial: The ethics committee for human studies of the Universidad de Antioquia approved the register protocol (Approval 16-59-711).


 Citation

Please cite as:

Castaño Usuga FA, Gissel C, Hernández Valdivieso AM

Motion Artifact Reduction in Electrocardiogram Signals Through a Redundant Denoising Independent Component Analysis Method for Wearable Health Care Monitoring Systems: Algorithm Development and Validation

JMIR Med Inform 2022;10(11):e40826

DOI: 10.2196/40826

PMID: 36274196

PMCID: 9736764

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