Based on numerous experiments ran on the QEG, we are able to determine which set of experimental schematics have a good chance of yielding interesting results in radiant effects and energy production. The implementation of Barbosa-Leal techology has not provided positive results, although there still exist other possible configurations that are yet un-tested and may be considered.
The Tesla Hairpin and similar radiant circuits are promising means to efficiently convert the energy accumulated during the resonant phase of the QEG. Connecting the terminals of the high-voltage windings on the QEG to a high voltage transformer to act as a single-pole source looks like a viable option for power collection. I highly recommend testing this method.
After numerous tests with the ignition coil discharge experiments as cited in the ‘QEG Real World’ videos, I noticed that I could get a leg off of the primary side to run length-wise along one end of the high voltage electrode that discharges to ground that is connect to the secondary ignition winding. Hence the electrode is a solid conductor of current for the primary, and gets charged with high voltage from negative end of the secondary coil before discharging to ground simultaneously. What if instead of a piece of metal as an electrode, it were replaced by a high impedance step down transformer? Then the idea occurred to me that it may be possible to essentially ‘mix’ signals through the high voltage primary of a transformer. After further investigation of this idea I found confirmation, and sure enough, this idea has been cited in a patent submission and a few forums online. Generally, a coil of sufficient impedance (inductance) would be driven by both oscillating high voltage potential and varying high current from independent sources simultaneously. You are essentially trying to mix two ‘signals’ on the same coil of wire. If this coil is a high turn primary of a transformer, then in theory, the secondary would ‘see’ the resultant signal that contains both high voltage and high current signals. If successful, the power circulating in the secondary winding would behave more like power has been multiplied than the addition of power from two signal sources. The phase and frequency of each of the signals are critical factors. There is much to test with this line of thinking, but it appears that others are researching this area.
The schematic above is the first design. Oscillating high voltage is introduced to a transformer via capacitive coupling and high current directly from the low turn secondary of the QEG or similar generator. The high voltage diodes are necessary to prove uni-directional current pulses. The schematic also includes a variable spark gap that may be required to pass the high potential at higher frequencies. The spark gap could be replaced by a high voltage SCR pulser circuit instead. In other words, if we can manage to mix high current lower frequency with high voltage higher frequency across the same high turn primary of an external transformer, we may have some interesting results on that transformer’s low turn secondary. Because the two sets of coils on the mini QEG are also 90 degrees out of phase, overlapping of high current and high voltage across the transformer coil is assured, at least in theory.