The Effect of Textile-Based Inductive Coil Sensor Positions for Heart Rate Monitoring

In the research related to heart rate measurement, few studies have been done using magnetic-induced conductivity sensing methods to measure the heart rate. The aim of this study was to analyze the effect of the position of a textile-based inductive coil sensor on the measurement of the heart rate....

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Veröffentlicht in:Journal of medical systems 2014-02, Vol.38 (2), p.2-2, Article 2
Hauptverfasser: Koo, Hye Ran, Lee, Young-Jae, Gi, Sunok, Khang, Seonah, Lee, Joo Hyeon, Lee, Jae-Ho, Lim, Min-Gyu, Park, Hee-Jung, Lee, Jeong-Whan
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Sprache:eng
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Zusammenfassung:In the research related to heart rate measurement, few studies have been done using magnetic-induced conductivity sensing methods to measure the heart rate. The aim of this study was to analyze the effect of the position of a textile-based inductive coil sensor on the measurement of the heart rate. In order to assess the capability of the textile-based inductive coil sensor and the repeatability of measured cardiac muscle contractions, we proposed a new quality index based on the morphology of measured signals using a textile-based inductive coil sensor. We initially explored eight potential positions of the inductive sensor in a pilot experiment, followed by three sensor positions in the main experiment. A simultaneously measured electrocardiography (ECG) signal (Lead II) which was used as a reference signal for a comparison of the R-peak location with signals obtained from selected positions of the textile-based inductive coil sensor. The result of the main experiment indicated that the total quality index obtained from the sensor position ‘P3’, which was located 3 cm away from the left side from the center front line on the chest circumference line, was the highest (QI value = 1.30) among the three positions across all the subjects. This finding led us to conclude that (1) the position of the textile-based inductive coil sensor significantly affected the quality of the measurement results, and that (2) P3 would be the most appropriate position for the textile-based inductive coil sensor for heart rate measurements based on the magnetic-induced conductivity sensing principle.
ISSN:0148-5598
1573-689X
DOI:10.1007/s10916-013-0002-0