Electron Efficiency Application Of Bright Fields Technology™ On Various Electronic Components.
Harry Jabs, M.S., Dipl.Phys., and Prof Beverly Rubik, Institute for Frontier
Science, Oakland, CA; Energy Medicine University, Sausalito, CA; College of Integrative Medicine and Health Sciences, Saybrook University, Oakland, CA. January 8, 2014.
TEST
Several electronic components including gas discharge tubes and capacitors with different dielectrics were tested first for baseline readings, and then, after Bright Fields Technology™ was applied for various lengths of time.
RESULTS
69.7% more voltage in plasma arrestors; 317% change of impedance in capacitors; 13.1% change in phase angles in capacitors; 59% change in Re(Z) impedance in Bright Fields Technology™ iO4 Capacitors. All of these indicate less loss of electrons in conductors.
Visually, the discharge region was less noisy and erratic. Jabs and Rubik stated, “all
effects appeared to streamline electron flow, possibly facilitating a more orderly electron conduction, which translates to less heat generation in electronic components.”
Several electronic components including gas discharge tubes and capacitors with different dielectrics were tested first for baseline readings, and then, after Bright Fields Technology™ was applied for various lengths of time.
RESULTS
69.7% more voltage in plasma arrestors; 317% change of impedance in capacitors; 13.1% change in phase angles in capacitors; 59% change in Re(Z) impedance in Bright Fields Technology™ iO4 Capacitors. All of these indicate less loss of electrons in conductors.
Visually, the discharge region was less noisy and erratic. Jabs and Rubik stated, “all
effects appeared to streamline electron flow, possibly facilitating a more orderly electron conduction, which translates to less heat generation in electronic components.”
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