Abstract

In the application of a body area network in medical healthcare, the process of receiving, archiving, and analyzing multibiosignals simultaneously from different devices for each body is very important. For example, to diagnose sleep apnea symptoms, a patient must sleep with dozens of devices, including electroencephalography (EEG), electrocardiogram (ECG), photoplethysmogram (PPG), peripheral oxygen saturation (SpO2), nasal cannula, and bands. Various wireless methods of body area network for acquisition and measurement of body signals have been introduced, but it is difficult to accurately diagnose various biosignals because their measurement frequencies are different from each other, and they are not guaranteed precise synchronization. Because each body biosignal is commonly synchronized with the heartbeat of the patient, precise synchronization of the heartbeat and other measuring cycles of each device is a critical attribute for analyzing the corelation of each biosignal in the body area network. However, it is difficult to guarantee the precise synchronization of multibiosignals by solely using carrier sense multiple access with collision detection- (CSMA/CD-) based wireless protocols, which are mainly used in existing body area networks. This study proposes a method of creating a self-organizing body area network based on wireless Time Division Multiple Access (TDMA) to guarantee the synchronization of multibiosignals and compare its accuracy with the CSMA/CD method.

Highlights

  • As the medical healthcare environment has changed from hospital-centered to home-centered, medical devices have changed

  • We propose a method for constructing a wireless Time Division Multiple Access (TDMA) based body area network platform

  • The user wears the wearable device on the wrist

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Summary

Introduction

As the medical healthcare environment has changed from hospital-centered to home-centered, medical devices have changed . Classification of these medical devices can be broadly divided into wired and wireless. Wired medical devices have high precision, but they are inconvenient to wear, complicated, and difficult to use by individual patients. These wired medical devices are not suitable for a patient living at home. Because there are no wires, they are convenient to wear and using them is relatively simple They can be used by the patient without assistance. The body area network for connecting many wireless medical devices has attracted much attention

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