Title :
A 4D immersive platform to visualize RF propagation in BAN
Author :
Hagedorn, Jurgen ; Sayrafian, Kamran ; Yazdandoost, Kamya Yekeh ; Terrill, Judith
Author_Institution :
Inf. Technol. Lab., Nat. Inst. of Stand. & Technol., Gaithersburg, MD, USA
Abstract :
Recent advances in micro-electronics technology to build small radio-enabled implantable and wearable medical sensors have sparked considerable interest in body area networks. Understanding the characteristics of radio frequency propagation inside and around the human body requires obtaining sufficient amount of data for different scenarios via physical experiment with human subjects. This is either difficult or in the case of implants, nearly impossible. In addition, the body motion could significantly impact the quality of wireless communication links (i.e. the propagation channel) among implants or wearable medical sensors. To address these issues, we have developed an immersive platform capable of emulating physical experiments. The platform includes a dynamic (i.e. 4D) human body model that can emulate various human motion e.g. walking. This 4D immersive platform can be used as a scientific instrument to study various Radio Frequency communication channels inside or on the surface of a human body. It can also be used to identify the best scenarios for limited physical experimentation and measurements.
Keywords :
body area networks; prosthetics; radiowave propagation; 4D immersive platform; BAN; body area networks; body motion; human body; human motion; implants; propagation channel; radiofrequency communication channels; radiofrequency propagation; wearable medical sensors; wireless communication links; Antennas; Biological system modeling; Implants; Radio frequency; Sensors; Surface waves; body area networks; immersive platform; radio frequency propagation;
Conference_Titel :
Antennas and Propagation (EuCAP), 2014 8th European Conference on
Conference_Location :
The Hague
DOI :
10.1109/EuCAP.2014.6902549