Why the study?
Does combining pressure, photoelectric, and ultrasonic wrist pulse sensors improve disease classification performance compared to individual sensors?
Does combining pressure, photoelectric, and ultrasonic wrist pulse sensors improve disease classification performance compared to individual sensors?
Combining pressure, photoelectric, and ultrasonic sensors for wrist pulse acquisition improves computational disease diagnosis performance.
Sensor fusion may enhance wrist-pulse disease classification; leaves open prospective clinical validation before practice change.
Increasing interest has been focused on computational pulse diagnosis where sensors are developed to acquire pulse signals, and machine learning techniques are exploited to analyze health conditions based on the acquired pulse signals. By far, a number of sensors have been employed for pulse signal acquisition, which can be grouped into three major categories, i.e., pressure, photoelectric, and ultrasonic sensors. To guide the sensor selection for computational pulse diagnosis, in this paper, we analyze the physical meanings and sensitivities of signals acquired by these three types of sensors. The dependence and complementarity of the different sensors are discussed from both the perspective of cardiovascular fluid dynamics and comparative experiments by evaluating disease classification performance. Experimental results indicate that each sensor is more appropriate for the diagnosis of some specific disease that the changes of physiological factors can be effectively reflected by the sensor, e.g., ultrasonic sensor for diabetes and pressure sensor for arteriosclerosis, and improved diagnosis performance can be obtained by combining three types of signals.
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Zuo et al. (2014) studied this question.
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