SCIRP Mobile Website
Paper Submission

Why Us? >>

  • - Open Access
  • - Peer-reviewed
  • - Rapid publication
  • - Lifetime hosting
  • - Free indexing service
  • - Free promotion service
  • - More citations
  • - Search engine friendly

Free SCIRP Newsletters>>

Add your e-mail address to receive free newsletters from SCIRP.

 

Contact Us >>

WhatsApp  +86 18163351462(WhatsApp)
   
Paper Publishing WeChat
Book Publishing WeChat
(or Email:book@scirp.org)

Article citations

More>>

Duelund-Jakobsen, J.E.A. (2013) Sacral Nerve Stimulation at Subsensory Threshold Does Not Compromise Treatment Efficacy: Results from a Randomized, Blinded Crossover Study. Annals of Surgery, 219-223.
http://dx.doi.org/10.1097/SLA.0b013e318269d493

has been cited by the following article:

  • TITLE: Rectification of RF Fields in Load Dependent Coupled Systems: Application to Non-Invasive Electroceuticals

    AUTHORS: Sree N. Koneru, Charles R. Westgate, Kenneth J. McLeod

    KEYWORDS: RF Demodulation in Tissue, Non-Linear Coupling, Complex Load-Line, Electroceuticals, Neuromodulation, Stochastic Resonance

    JOURNAL NAME: Journal of Biomedical Science and Engineering, Vol.9 No.2, February 29, 2016

    ABSTRACT: Electroceuticals are medical devices that employ electric signals to alter the activity of specific nerve fibers to achieve therapeutic effects. The rapid growth of RF microelectronics has resulted in the development of very small, portable, and inexpensive shortwave and microwave radio frequency (RF) amplifiers, raising the possibility of utilizing these new RF technologies to develop non-contact electroceutical devices. However, the bio-electromagnetics literature suggests that beyond 10 MHz, RF fields cannot influence biological tissue, beyond simple heating, because effective demodulation mechanisms at these frequencies do not exist in the body. However, RF amplifiers operating at or near saturation have non-linear interactions with complex loads, and if body tissue creates a complex loading condition, the opportunity exists for the coupled system to produce non-linear effects, that is, the equivalent of demodulation may occur. Correspondingly, exposure of tissue to pulsed RF energy could result in the creation of low frequency demodulation components capable of influencing tissue activity. Here, we develop a one-dimen- sional, numerical simulation to investigate the complex loading conditions under which such demodulation could arise. Applying these results in a physical prototype device, we show that up to7.5% demodulation can be obtained for a 40 MHz RF field pulsed at 1 KHz. Implications for this research include the possibility of developing wearable, electromagnetic electroceutical de- vices.