Surveys and simulations are carried out on several implantable radio transmitters for health monitoring. The first half of this project focuses on gathering data on recent research in the area of Medical Implant Communication Systems (MICS), a standard aimed at improving communication distances to ~2~meters. Next we broaden our scope of coverage to include other bands outside the MICS band which achieve link distance over 2~meters by investigating Ultra Wide Band (UWB) systems and other potential long range radios. In addition we discuss various link performance parameters between several works to gain a better understanding of the system. Finally we run several simulations, using ADS Momentum to model the power gain between an implanted transmitter antenna (loop) in muscle tissue to a receiver antenna (dipole) in free space. Using data collected and the results from the simulations, a performance metric is formed for quantifying the power gain as a function of free space, tissue depth, and frequency.
Emmanuel Adeagbo and Stephen O'Driscoll,
"Implantable Radio Transmitters for Long Range Health Monitoring,"
Technical Report ECE-2010
VLSI Computation Lab and Solid State Circuits Research Laboratory,
ECE Department, University of California, Davis,
December, 2010.
@techreport{eadeagbo:implanttransmitter, author = {Emmanuel Adeagbo and Stephen O'Driscoll}, title = {Implantable Radio Transmitters for Long Range Health Monitoring}, institution = {VLSI Computation Lab and SSCRL, ECE Department, University of California, Davis}, year = 2010, month = dec, number = {ECE-2010}, note = {\url{http://vcl.ece.ucdavis.edu/pubs/2010.12.techreport.implanttransmitter/}} }