Laser-Bioplasma Interaction: The Epilepsy-Topion-Bioplasma, (the Seizure Onset Area) Upon the Action of the Optical-Fiber-Guided Multi-Ultraviolet-Photon Beams

POSTER

Abstract

The ultraviolet photons may control the imbalance of sodium and potassium ions in the brain bioplasma and, consequently, may prove to be efficient in the prevention of epileptic seizures.\footnote{V. Alexander Stefan, APS-March-2016, Abstract \textbf{{\#}}M1.00310;APS-DPP-November-2015, Abstract {\#}JP12.00155.} A novel method is based on the multi-ultraviolet-photon beam interaction\footnote{V. Stefan, B. I. Cohen, C. Joshi, \textit{Science}, 243, 4890, (Jan.27, 1989); Stefan et al., Bull. APS 32, No.9, 1713, (1987); Stefan, APS-March-2015, Abstract {\#} P1.00099;\textbf{~}V. Alexander Stefan, Neurophysics\textit{, Stem Cell Physics, and Genomic Physics: Beat-Wave-Driven-Free Electron Laser Beam Interactions with the Living Matter}, (S-U-Press, La Jolla, Calif, 2012).} with the epilepsy-topion-bioplasma, (nonlinear coupling of an ultra high frequency mode to the brain beta phonons). It is hypothesized that epilepsy is a chaotic-dynamics phenomenon: small electrical changes in the epilepsy-topion-bioplasma lead, (within the 10s of milliseconds), to the onset of chaos, (seizure---excessive electrical discharge), and subsequent cascading into adjacent areas.\footnote{H.P. Zaveri et al., Localization-related epilepsy exhibits significant connectivity away from the seizure-onset area, Neuroreport, 20(9), 891-5, Jun17, 2009.\par }

Authors

  • V. Alexander Stefan

    Institute for Advanced Physics Studies, Stefan University, La Jolla, CA 92038-1007