Why the study?
Autonomic nervous system dysfunction is the main cause of death in HFMD and tetanus, but its early detection remains difficult and challenging.
Does a machine learning approach using ECG waveforms improve the detection of autonomic nervous system dysfunction compared to standard heart rate variability analysis in patients with HFMD and tetanus?
Does a machine learning approach using ECG waveforms improve the detection of autonomic nervous system dysfunction compared to standard heart rate variability analysis in patients with HFMD and tetanus?
A machine learning tool using ECG waveforms can automatically and effectively detect autonomic nervous system dysfunction in patients with severe infectious diseases like HFMD and tetanus.
May aid ANSD detection in severe infections; leaves open prospective validation before clinical adoption.
Hand foot and mouth disease (HFMD) and tetanus are serious infectious diseases in low- and middle-income countries. Tetanus, in particular, has a high mortality rate and its treatment is resource-demanding. Furthermore, HFMD often affects a large number of infants and young children. As a result, its treatment consumes enormous healthcare resources, especially when outbreaks occur. Autonomic nervous system dysfunction (ANSD) is the main cause of death for both HFMD and tetanus patients. However, early detection of ANSD is a difficult and challenging problem. The authors aim to provide a proof-of-principle to detect the ANSD level automatically by applying machine learning techniques to physiological patient data, such as electrocardiogram waveforms, which can be collected using low-cost wearable sensors. Efficient features are extracted that encode variations in the waveforms in the time and frequency domains. The proposed approach is validated on multiple datasets of HFMD and tetanus patients in Vietnam. Results show that encouraging performance is achieved. Moreover, the proposed features are simple, more generalisable and outperformed the standard heart rate variability analysis. The proposed approach would facilitate both the diagnosis and treatment of infectious diseases in low- and middle-income countries, and thereby improve patient care.
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Tadesse et al. (2020) studied Hand foot and mouth disease (HFMD) and tetanus. Machine learning techniques applied to electrocardiogram waveforms vs. Standard heart rate variability analysis was evaluated on Detection of autonomic nervous system dysfunction (ANSD) level.
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