Why the study?
Monitoring ECG and respiration continuously and non-invasively is essential for managing cardiopulmonary health, and an effective wearable device could regularly monitor key vitals to reduce the need for clinical visits.
Does the CardioResp wearable device accurately measure heart rate and respiration rate compared to commercial devices in static and dynamic postures?
Does the CardioResp wearable device accurately measure heart rate and respiration rate compared to commercial devices in static and dynamic postures?
The CardioResp wearable device demonstrates high accuracy for continuous heart rate and respiration monitoring across various physical activities, offering a low-power solution for cardiopulmonary tracking.
Monitoring electrocardiogram (ECG) and respiration continuously and non-invasively is essential for managing cardiopulmonary health. An effective wearable device can be used to regularly monitor key vitals, reducing the need for clinical visits. In this work, we propose a custom device for real-time continuous ECG by inkjet printed (IJP) dry electrodes and respiration monitoring by using a novel single 6-axis inertial measurement unit (IMU). The proposed system can extract the heart rate (HR) and respiration rate (RR) during static and dynamic postures. The respiration process implements a quaternion-based update and multiple filtering stages to estimate the signal. The custom device uses Bluetooth protocol to send the raw and processed data to a mobile application. The RR is investigated in stationary, i.e., sitting and standing, and dynamic, i.e., walking, running, and cycling, postures. The proposed device is evaluated with commercial Go Direct® respiration belt from Vernier® for RR and offers an overall accuracy of 99.3% and 98.6% for static and dynamic conditions, respectively. The wearable also offers 98.9% and 97.9% accuracy for HR measurements, respectively, in static and active postures when compared with the Kardia® device. Furthermore, the device is assessed in an ambulatory monitoring setup in both indoor and outdoor environments. The low-power wearable consumes an average of only 7.4 mA of current during data processing. The device performs effectively and efficiently in both stationary and active states, offering a low complexity, portable solution for real-time monitoring. The proposed system can benefit from the continuous monitoring and early detection of pulmonary and cardio-respiratory health issues.
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Rahman et al. (2025) studied this question.
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