Why the study?
Conventional heart rate monitoring methods face practical limitations from external sensor dependence and motion artifacts, while the benefits of gyrocardiography remain overlooked.
Gyrocardiography presents a promising alternative to conventional heart rate monitoring methods, offering enhanced sensitivity and accuracy, though clinical validation hurdles remain.
Clinical adoption of gyrocardiography awaits validation trials; leaves open its role pending prospective studies.
Accurate heart rate (HR) measurement is crucial for optimal cardiac health, and while conventional methods such as electrocardiography and photoplethysmography are widely used for continuous daily monitoring, they may face practical limitations due to their dependence on external sensors and susceptibility to motion artifacts. In recent years, mechanocardiography (MCG)-based technologies, such as gyrocardiography (GCG) and seismocardiography (SCG), have emerged as promising alternatives to address these limitations. GCG has shown enhanced sensitivity and accuracy for HR detection compared to SCG, although its benefits are often overlooked in the context of the widespread use of accelerometers in HR monitoring applications. In this perspective, we aim to explore the potential and challenges of GCG, while recognizing that other technologies, including photoplethysmography and remote photoplethysmography, also have promising applications for HR monitoring. We propose a roadmap for future research to unlock the transformative capabilities of GCG for everyday heart rate monitoring.
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Elgendi et al. (2023) studied this question.
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