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Main Authors: González, Sergio, Yi, Abel Ko-Chun, Hsieh, Wan-Ting, Chen, Wei-Chao, Wang, Chun-Li, Wu, Victor Chien-Chia, Chang, Shang-Hung
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2403.15408
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author González, Sergio
Yi, Abel Ko-Chun
Hsieh, Wan-Ting
Chen, Wei-Chao
Wang, Chun-Li
Wu, Victor Chien-Chia
Chang, Shang-Hung
author_facet González, Sergio
Yi, Abel Ko-Chun
Hsieh, Wan-Ting
Chen, Wei-Chao
Wang, Chun-Li
Wu, Victor Chien-Chia
Chang, Shang-Hung
contents Cardiovascular diseases, including Heart Failure (HF), remain a leading global cause of mortality, often evading early detection. In this context, accessible and effective risk assessment is indispensable. Traditional approaches rely on resource-intensive diagnostic tests, typically administered after the onset of symptoms. The widespread availability of electrocardiogram (ECG) technology and the power of Machine Learning are emerging as viable alternatives within smart healthcare. In this paper, we propose several multi-modal approaches that combine 30-second ECG recordings and approximate long-term Heart Rate Variability (HRV) data to estimate the risk of HF hospitalization. We introduce two survival models: an XGBoost model with Accelerated Failure Time (AFT) incorporating comprehensive ECG features and a ResNet model that learns from the raw ECG. We extend these with our novel long-term HRVs extracted from the combination of ultra-short-term beat-to-beat measurements taken over the day. To capture their temporal dynamics, we propose a survival model comprising ResNet and Transformer architectures (TFM-ResNet). Our experiments demonstrate high model performance for HF risk assessment with a concordance index of 0.8537 compared to 14 survival models and competitive discrimination power on various external ECG datasets. After transferability tests with Apple Watch data, our approach implemented in the myHeartScore App offers cost-effective and highly accessible HF risk assessment, contributing to its prevention and management.
format Preprint
id arxiv_https___arxiv_org_abs_2403_15408
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Multi-modal Heart Failure Risk Estimation based on Short ECG and Sampled Long-Term HRV
González, Sergio
Yi, Abel Ko-Chun
Hsieh, Wan-Ting
Chen, Wei-Chao
Wang, Chun-Li
Wu, Victor Chien-Chia
Chang, Shang-Hung
Signal Processing
Artificial Intelligence
Machine Learning
Cardiovascular diseases, including Heart Failure (HF), remain a leading global cause of mortality, often evading early detection. In this context, accessible and effective risk assessment is indispensable. Traditional approaches rely on resource-intensive diagnostic tests, typically administered after the onset of symptoms. The widespread availability of electrocardiogram (ECG) technology and the power of Machine Learning are emerging as viable alternatives within smart healthcare. In this paper, we propose several multi-modal approaches that combine 30-second ECG recordings and approximate long-term Heart Rate Variability (HRV) data to estimate the risk of HF hospitalization. We introduce two survival models: an XGBoost model with Accelerated Failure Time (AFT) incorporating comprehensive ECG features and a ResNet model that learns from the raw ECG. We extend these with our novel long-term HRVs extracted from the combination of ultra-short-term beat-to-beat measurements taken over the day. To capture their temporal dynamics, we propose a survival model comprising ResNet and Transformer architectures (TFM-ResNet). Our experiments demonstrate high model performance for HF risk assessment with a concordance index of 0.8537 compared to 14 survival models and competitive discrimination power on various external ECG datasets. After transferability tests with Apple Watch data, our approach implemented in the myHeartScore App offers cost-effective and highly accessible HF risk assessment, contributing to its prevention and management.
title Multi-modal Heart Failure Risk Estimation based on Short ECG and Sampled Long-Term HRV
topic Signal Processing
Artificial Intelligence
Machine Learning
url https://arxiv.org/abs/2403.15408