Uploaded July 2022 | Updated September 2026, 2 weeks ago
When I was doing experiments with the SF28 diodes I noticed that when I connected the diodes like you see in the circuit but to a coil that I also had the electric field available on that coil even though the diodes where opposing each other. Because previous done experiments with one wire I always ended up with drawing more current from the source when adding tuned one wire circuits, I thought maybe this could be the solution.
As you can see in the video, it's indeed a great help. By placing the diodes in between my load has almost no influence on the high voltage source.
Adding extra loads doesn't effect the other loads as well, which was the case when the diodes where not there or a capacitor in series was used to try and stop current flow that way.
I'm going to assume there's more then 2Km (32Khz wave length = 9.36Km = 1/4 = 2.34Km or 7677 feet) of wire on that high voltage winding of those transformers, hard to belief to be honest but I have no option to test real length.
When I was doing experiments with the SF28 diodes I noticed that when I connected the diodes like you see in the circuit but to a coil that I also had the electric field available on that coil even though the diodes where opposing each other. Because previous done experiments with one wire I always ended up with drawing more current from the source when adding tuned one wire circuits, I thought maybe this could be the solution.
As you can see in the video, it's indeed a great help. By placing the diodes in between my load has almost no influence on the high voltage source.
Adding extra loads doesn't effect the other loads as well, which was the case when the diodes where not there or a capacitor in series was used to try and stop current flow that way.
I'm going to assume there's more then 2Km (32Khz wave length = 9.36Km = 1/4 = 2.34Km or 7677 feet) of wire on that high voltage winding of those transformers, hard to belief to be honest but I have no option to test real length.
