Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals

Background In the field of mobile health, portable dynamic electrocardiogram (ECG) monitoring devices often have a limited number of lead electrodes due to considerations, such as portability and battery life. This situation leads to a contradiction between the demand for standard 12‑lead ECG inform...

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Main Authors: Wang, Liang Hung, Zou, Yu Yi, Xie, Chao Xin, Yang, Tao, Abu, Patricia Angela R
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Published: Archīum Ateneo 2024
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Online Access:https://archium.ateneo.edu/discs-faculty-pubs/408
https://doi.org/10.1016/j.jelectrocard.2024.03.004
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spelling ph-ateneo-arc.discs-faculty-pubs-14082024-04-15T08:31:31Z Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals Wang, Liang Hung Zou, Yu Yi Xie, Chao Xin Yang, Tao Abu, Patricia Angela R Background In the field of mobile health, portable dynamic electrocardiogram (ECG) monitoring devices often have a limited number of lead electrodes due to considerations, such as portability and battery life. This situation leads to a contradiction between the demand for standard 12‑lead ECG information and the limited number of leads collected by portable devices. Methods This study introduces a composite ECG vector reconstruction network architecture based on convolutional neural network (CNN) combined with recurrent neural network by using leads I, II, and V2. This network is designed to reconstruct three‑lead ECG signals into 12‑lead ECG signals. A 1D CNN abstracts and extracts features from the spatial domain of the ECG signals, and a bidirectional long short-term memory network analyzes the temporal trends in the signals. Then, the ECG signals are inputted into the model in a multilead, single-channel manner. Results Under inter-patient conditions, the mean reconstructed Root mean squared error (RMSE) for precordial leads V1, V3, V4, V5, and V6 were 28.7, 17.3, 24.2, 36.5, and 25.5 μV, respectively. The mean overall RMSE and reconstructed Correlation coefficient (CC) were 26.44 μV and 0.9562, respectively. Conclusion This paper presents a solution and innovative approach for recovering 12‑lead ECG information when only three‑lead information is available. After supplementing with comprehensive leads, we can analyze the cardiac health status more comprehensively across 12 dimensions. 2024-05-01T07:00:00Z text https://archium.ateneo.edu/discs-faculty-pubs/408 https://doi.org/10.1016/j.jelectrocard.2024.03.004 Department of Information Systems & Computer Science Faculty Publications Archīum Ateneo Bidirectional long short-term memory network Convolutional neural network Heartbeat segmentation Lead reconstruction Biomedical Computer Sciences Electrical and Computer Engineering Engineering Physical Sciences and Mathematics
institution Ateneo De Manila University
building Ateneo De Manila University Library
continent Asia
country Philippines
Philippines
content_provider Ateneo De Manila University Library
collection archium.Ateneo Institutional Repository
topic Bidirectional long short-term memory network
Convolutional neural network
Heartbeat segmentation
Lead reconstruction
Biomedical
Computer Sciences
Electrical and Computer Engineering
Engineering
Physical Sciences and Mathematics
spellingShingle Bidirectional long short-term memory network
Convolutional neural network
Heartbeat segmentation
Lead reconstruction
Biomedical
Computer Sciences
Electrical and Computer Engineering
Engineering
Physical Sciences and Mathematics
Wang, Liang Hung
Zou, Yu Yi
Xie, Chao Xin
Yang, Tao
Abu, Patricia Angela R
Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals
description Background In the field of mobile health, portable dynamic electrocardiogram (ECG) monitoring devices often have a limited number of lead electrodes due to considerations, such as portability and battery life. This situation leads to a contradiction between the demand for standard 12‑lead ECG information and the limited number of leads collected by portable devices. Methods This study introduces a composite ECG vector reconstruction network architecture based on convolutional neural network (CNN) combined with recurrent neural network by using leads I, II, and V2. This network is designed to reconstruct three‑lead ECG signals into 12‑lead ECG signals. A 1D CNN abstracts and extracts features from the spatial domain of the ECG signals, and a bidirectional long short-term memory network analyzes the temporal trends in the signals. Then, the ECG signals are inputted into the model in a multilead, single-channel manner. Results Under inter-patient conditions, the mean reconstructed Root mean squared error (RMSE) for precordial leads V1, V3, V4, V5, and V6 were 28.7, 17.3, 24.2, 36.5, and 25.5 μV, respectively. The mean overall RMSE and reconstructed Correlation coefficient (CC) were 26.44 μV and 0.9562, respectively. Conclusion This paper presents a solution and innovative approach for recovering 12‑lead ECG information when only three‑lead information is available. After supplementing with comprehensive leads, we can analyze the cardiac health status more comprehensively across 12 dimensions.
format text
author Wang, Liang Hung
Zou, Yu Yi
Xie, Chao Xin
Yang, Tao
Abu, Patricia Angela R
author_facet Wang, Liang Hung
Zou, Yu Yi
Xie, Chao Xin
Yang, Tao
Abu, Patricia Angela R
author_sort Wang, Liang Hung
title Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals
title_short Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals
title_full Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals
title_fullStr Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals
title_full_unstemmed Feasibility and Validity of Using Deep Learning to Reconstruct 12-Lead ECG from Three‑Lead Signals
title_sort feasibility and validity of using deep learning to reconstruct 12-lead ecg from three‑lead signals
publisher Archīum Ateneo
publishDate 2024
url https://archium.ateneo.edu/discs-faculty-pubs/408
https://doi.org/10.1016/j.jelectrocard.2024.03.004
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