That diagonal line behind the transformer is a wire which goes up and plugs onto the top of one of the caps. Also, there's a plug on the end of the red wires. When this is unplugged, the white cover can lie flat. Maybe it's plugged into the relay?
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Gray Tube Replication
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Splitting The Positive With Battery And Capacitor
It's obvious that you can't split the positive with two batteries, since the potential of each battery cancels the other's, leaving no potential difference between the two positive terminals. Also, three batteries, with two in series and the third battery's negative connected to the negative of the other two, doesn't split the positive, since there's only one positive terminal with this circuit, due to the voltage drop across the single battery. However, a different situation exists when a battery and a capacitor are used. With the capacitor at a higher potential, the battery's positive terminal acts as the capacitor's negative pole - but only until the capacitor discharges. Then, the battery's positive terminal returns to the LV potential, with the battery discharging a pulse through the capacitor and the rest of the circuit.
Another factor to consider is the capacitor's ring back effect. Atfer it discharges, the momentary electrostatic field still present in the dielectric pulls charge back into the capacitor, in the opposite direction of the discharge. It's occurred to me that this "inductive pull" might allow for a heavier surge of current from the battery than would occur when the battery is discharged into a non charged cap. So I set up an experiment to test for this effect.
I switched the cap around so that it's constantly wired to the diode 24, using my hot stick jumper wire for the switch 26. Then I fired the circuit after several seconds, to allow the cap to fully charge. After that, I turned the power off and shorted the capacitor with the jumper wire. This produced a snap, indicating there was still some charge in the capacitor. Then I did the same thing, with a car battery in series with the capacitor, positive to positive. This time, after turning the power off, I got a much louder snap when I shorted the capacitor.
I repeated both tests several times with similar results. I could never get as loud a discharge from the capacitor without the battery in the circuit. These tests were too primitive to be considered conclusive, but I have a direction to pursue. Later, I'll check the approximate power levels using my repulsion coils.
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Originally posted by Electrotek View PostOK, I see the blue arrow's wire now. It does look like the loop is connected to the coil. I wonder what the loop is? It would have a really high frequency if it was a standing wave antenna. Being in parallel with the main coils would make the loop some kind of choke. But it seems such an effect would be very small.
Any ideas?
Interesting theory on the battery and cap.Attached Files
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Originally posted by Electrotek View PostMartin: Thanks for the circuit. I wonder how the loop is orriented relative to the coils.
That loop in Gray's picture will produce a rotating magnetic field if it's frequency mismatched.
I know that the scalar waves that Dollard makes with his circuit will light incandescent bulbs as well as fl. tubes. However, it still heats the bulb. Dollards scalar wave actually combines magnetisim and current in the same direction. What is confusing is how to cancel out the magnetism. Ive read some other documents on longitudinal waves and they have similar circular antennas that favor the combinitation FFF and wire loop in Gray's pic. The theory is to get identical waves 180 deg out of phase to cancel out the magnetic field, but what youre left with is so weak, it's hardly usable/detectable.
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In order to cancel out the magnetism, don't you have to have two identical setups producing waves in opposite directions? Or waves at 180 from the same direction.Last edited by Electrotek; 03-12-2009, 03:55 AM.
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Originally posted by Electrotek View PostIn order to cancel out the magnetism, don't you have to have two identical setups producing waves in opposite directions? Or waves at 180 from the same direction.
Do you or anyone know what core material his electromagnets consisted of and/or the motor housing (in the early motors)?Last edited by martin; 03-12-2009, 06:58 AM.
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Retraction
I've been checking my "splitting the positive" effect and it seems I may have jumped the gun with my report. It turns out the charge in the cap, after discharging the circuit, is related to how long it takes to turn the power off. I'm going to go back to using the cap as 38, rather than 16. And I may have killed my battery. It still shows a voltage, but I can't get any sparks out of it. (I still have four more.)
It's still an interesting theory so I'm going to persue it a little further. But I don't recommend anyone else try it with heavy current HV discharges.
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Originally posted by Electrotek View PostI've been checking my "splitting the positive" effect and it seems I may have jumped the gun with my report. It turns out the charge in the cap, after discharging the circuit, is related to how long it takes to turn the power off. I'm going to go back to using the cap as 38, rather than 16. And I may have killed my battery. It still shows a voltage, but I can't get any sparks out of it. (I still have four more.)
It's still an interesting theory so I'm going to persue it a little further. But I don't recommend anyone else try it with heavy current HV discharges.Last edited by martin; 03-12-2009, 05:06 PM.
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Splittin The Positive?
I think Grey was referring to spliting the positive as a way of describing, What he was doing with the supply battery. He was taking the battery positive and stepping up the voltage into half-wave rectified high voltage DC potiential. Using that high voltage potiential to charge caps, run the motor and returning any excess to the charge battery. Thus he had a low voltage and a high voltage from the same battery, splitting the positive.
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Still Working
Martin: That's good. That's really good. It turns out, though, that the battery is alright. I let it set for awhile and it came back. It drives my 87V. treadmill motor at around 60 to 80 RPM. And it's sparking again. So I did a little more with it.
I changed the circuit so that the CSET is tied directly to the cap, without an interrupter. This gives the CSET a constant spark, but the cap still charges. This is probably due to the choke effect of the coil around the Tube, in series with the arc. The battery is in series with the transformer, on the non rectified side. I fired the circuit, after several seconds of charging time, by taking the battery's other wire to the LV end of the CSET. (Along with the unbroken HV wire.) With this circuit, there isn't any residual charge in the cap, as long as I pull the plug while the Puff Spark is present. It drops the battery potential as much as .2V after around 10 firings. When I turn the battery around, the potential picks back up. And it went up another .1V after setting for a few hours.
Ghst: You're probably right. I don't see any evidence of the battery increasing the cap's charge. Still, there may be a little extra power with the repulsion coils, when I try "splitting the positive" like that. I'm not expecting much. But once the battery's power is split between the cap and the transformer, combining these two positive sparks may be the magic "secret". IOW, it might be nothing more than the plasma spark effect itself. I'm going to try discharging nothing but the capacitor into the coils to see how much repulsion that produces.
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I'm going to try discharging nothing but the capacitor into the coils to see how much repulsion that produces.
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Originally posted by Ghst View PostWhen I did this I "swiped" a wire to my capacitors positive, across the high voltage supply, immediately touching off the discharge to the coils. If you setup properly it is accomplished in one motion. But, I found that, you need figure how to time the discharge "touch". The longer the "touch" the more the capacitor discharges. If you empty the capacitor then it wants to spark when you "swipe" the high voltage supply, on recharge.
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Power Supply
Well, I found another angle on the power supply, looks like there's 2 transformers used. I wonder if those silver/black looking things are old relay switchers. It looks like there's two of them.
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