Did I just not look far enough?
https://www.youtube.com/watch?v=aDjWwoD83Rk#
maybe we didn't... it looks liked the reactive power is converted to DC then rebuilt to AC
Luc
Did I just not look far enough?
https://www.youtube.com/watch?v=aDjWwoD83Rk#
maybe we didn't... it looks liked the reactive power is converted to DC then rebuilt to AC
Did I just not look far enough?
https://www.youtube.com/watch?v=aDjWwoD83Rk#
Jim demos his electronic unit, but states at the beginning that timing can also be controlled mechanically with what appears to be a QoMoGen device sitting on the other table.
Many years ago I knew an old guy that was always saying, "Timing is everything." I suspect the old guy was right, but I have to wonder how we could swap between voltage and amperage at the correct intervals to utilize reactive power. To me it seems like there should be a straightforward way to borrow voltage when the amperage is high to produce wattage, then again borrow amperage when the voltage is high to also produce wattage. Maybe only one or the other is possible, but the idea all revolves around timing--you shift in what you need at times when you wouldn't normally have it and in doing so, you create power that can do useful work. Conceptually, it just doesn't seem that difficult. Think about this...
We can charge a capacitor very fast with high amperage, but at the time we have high amperage, we have low voltage. So lets charge the caps in parallel when voltage is low and current is high, then cross connect the capacitors all in series to create fairly high current potential as well as increase the voltage potential.
How about the other side? We can make a strong magnetic field in an inductor when the voltage is high and the amperage is low. So here lets do the same as we did with the capacitors. Lets "charge" them in parallel when voltage is high and amperage is low, then switch them from being in parallel to series to drive our load.
Now remember here, our source power is reactive--voltage and amperage are 90 degrees out of phase. So at each quadrant of the AC power source, we have two angles to charge inductors and two other angles to charge capacitors. And when these devices are not charging, they are discharging into our load.
Now I'm sure I don't have this 100% correct or any of the engineering details described, but is the concept sound? Could this work?
Did I just not look far enough?
https://www.youtube.com/watch?v=aDjWwoD83Rk#
Jim demos his electronic unit, but states at the beginning that timing can also be controlled mechanically with what appears to be a QoMoGen device sitting on the other table.
Many years ago I knew an old guy that was always saying, "Timing is everything." I suspect the old guy was right, but I have to wonder how we could swap between voltage and amperage at the correct intervals to utilize reactive power. To me it seems like there should be a straightforward way to borrow voltage when the amperage is high to produce wattage, then again borrow amperage when the voltage is high to also produce wattage. Maybe only one or the other is possible, but the idea all revolves around timing--you shift in what you need at times when you wouldn't normally have it and in doing so, you create power that can do useful work. Conceptually, it just doesn't seem that difficult. Think about this...
We can charge a capacitor very fast with high amperage, but at the time we have high amperage, we have low voltage. So lets charge the caps in parallel when voltage is low and current is high, then cross connect the capacitors all in series to create fairly high current potential as well as increase the voltage potential.
How about the other side? We can make a strong magnetic field in an inductor when the voltage is high and the amperage is low. So here lets do the same as we did with the capacitors. Lets "charge" them in parallel when voltage is high and amperage is low, then switch them from being in parallel to series to drive our load.
Now remember here, our source power is reactive--voltage and amperage are 90 degrees out of phase. So at each quadrant of the AC power source, we have two angles to charge inductors and two other angles to charge capacitors. And when these devices are not charging, they are discharging into our load.
Now I'm sure I don't have this 100% correct or any of the engineering details described, but is the concept sound? Could this work?
somehow I don't think this will be shared in public domain.
I had this thought come, I wonder if they just created a grid mirror circuit that at a precise time the circuit and grid rocks back and forth in that big transformer?
I can't reveal any of their work, but I will tell you this is just the solid state version. There are ones that Jim built based on a AC motor/generator setup and with these kind of COP's, whether it is closed loop or not change the significance of what is going on here. Is there enough to close the loop? Absolutely - need at least COP 7-8 to start doing that easily. Have I seen them close the loop? No, nor is it necessary.
When we show people serious overunity that they've never saw - then they want it to be closed looped before taking action? I think everyone is lucky they get anything at all from these men.
The QEG and other self running claims online are scams and have not been successfully replicated. Jim's methods actually have been replicated so for now, so as it stands, nobody else is showing anything like this that has been replicated by others.
Did I just not look far enough?
https://www.youtube.com/watch?v=aDjWwoD83Rk#
...
at 56:13 he says that the switching device controls the phase shift between voltage and current and that way transforms into power. so the switch seems to work as a phase shifter for current. there seem to be 6 switches in use.
at 56:13 he says that the switching device controls the phase shift between voltage and current and that way transforms into power. so the switch seems to work as a phase shifter for current. there seem to be 6 switches in use.