Good brain storming guy's, now I really think we are getting somewhere. Audio range, air-gap, ferrite core transformer. And, as always, thanks for all the hard work. Too, again, you "all" are welcome for the transformer link, glad it could help. :cool::D:P
Thank you for the words :exclamation:
:)Keeping motivation high for me...
first step try test with 8XA-diagram(bifilar) from JP,and think about how it work.because VIC - U - core(5coils) too complex.
I tend to agree. There is something happening with the 8XA circuit we are not seeing.
I have a screwy theory about what "might" be happening. Recall I mentioned atomic resonance and it being a pretty high frequency somewhere around either 21MHz or 42MHz. Any chance when the bilar, air gapped coil collapses it produces spikes approximately 24ns or 48ns apart from each other? I'm thinking a high spike followed by a reverse or low spike at that interval. Check my units in comparison to that frequency--I think it's nano seconds but could be micro seconds.
My wild theory is maybe we are "ringing" loose the hydrogen atoms causing the water molecule to collapse. Kind of like pushing a child on a swing--a strong push in one direction and then a strong pull at the right time in the other direction causing the child (atom) to fling right out of the swingset (molecule).
Since we have been playing in the audio frequency range for the charging of the coil, maybe none of us has really looked at what is happening when the coil discharges on the output side. I know my scope tops out at 20MHz so I'm not able to see anything interesting. If somebody has a 50MHz storage scope and can hook it across the WFC with differential inputs, maybe it's possible to catch those theoretical spikes. It would certainly tell us something I can only suspect may be happening. Even better if someone sees spikes maybe 30ns apart and can move them around while watching HHO output.
Just a thought. Pick it apart best you can.
i know something.coil is paralell LC when you charge coil,it osciltate inside paralell LC.frequecy range=GHZ i think 50mhz oscilloscope is unable to track it.this why coil has back spike cause high impedant high voltage.back EMF very importance,Tesla tech is about this.radiant energy come to Back EMF,high voltage open energy path way to go to atom.
i making a test ,will report future about 8XA.
thanks
geenee
Hi folks,
you are right. Let us keep it by the 8XA circuit. But this little brain stroming of the VIC brought some big points to us. I assume that the VIC and the 8XA technology do have the same bsic idea of meyer. The VIC seems to be a improved state of the 8XA.
To keep the complexity a little bit lower (hard enough), let us try to find some equality/analogy when we compare the VIC and the 8XA.
In both cases there are the Charging chokes and the WFC. And in both cases, the pulsing keeps in audio range. 8XA can go up to 100kHz (manually on the panel in the front of the black 8XA box) and the cores have an air gap.
To hit something like electrotechnical resonance the components of the circuit in the 8XA must be balanced to the frequency which is available.
Normaly you are right when you say, the resonance frequency of the coil itself is somewhere in MHz Range, but this valid for very tiny inductivitys.
Yyou can create a resonant cicuit with lower frequencys, because the resonant frequency depending on the components value (L and C).
With the formular f= 1/(2pi*sprt(LC)) you see that the frequency can be lowered by making L and the parasitic C bigger.
It is no problem to rise the L of a coil by wrapping more turns. To rise the parasitic C of a coil you need to wrap more layers of wire about each other.
Do we find something descriped in the Charging chokes? I think yes. Specially of the VIC the L of the Charging Chokes is very high (>1H) and they are wrapped in many layers of wire.
Maybe you know about this paper in the attachment:
We search components which might can swing in resonance.
So I take the value of the first Charging choke with ferrite core:
L=1218mH & C=157.7pF -> This is only the values of the first charging choke:
The resonant frequency of both is:
11484Hz = 11.4kHz -> So we are somewhere in the audio range. Also stan sayed that in the New Sealand video, that the frequency is somewhere in that range an can go up to 15kHz depending on the water. Also we hear in the newest, long (1 hour) video of meyer the PLL is working in audiorange.
Of course the hole system, secondary main, Charging choke 1&2 and the WFC (different water) do have an overall frequency which will be near to the frequency calculated above.. Therefor the VIC do have the PLL to search automatically for the right frequency to swing.
When the Resonant Charging Choke itself is swinging (L and the parasitic C) on the rigth frequency, the impendance Z of it becomes "infinity". So the current will be minimized and the voltage can rise up automatically. Because P=VxI / P=UxI is valid for the primary side and for the secondary.
Let us compare this, you will might see, that the 8XA does the same thing. But I don´t know the values of the charging chokes, so I cann´t say, what frequency it will be to swing. The chokes look smaller, so I think the resonant frequency is much higher than in the VIC (maybe the range of the device goes up to 100kHz). But they also have a parasitic C. A difference is that in the 8XA a common 60Hz sine will be rectified to 120Hz. That is the Voltage supply. Then this signal will be chopped by the transistor/thyristor to create high frequency. It would be better to have a big capacitance to smooth the supply voltage. So every chopped voltage peak is equal in amplitude.
As Stan sayed in the patents "amp inhibiting circuit", -> the operation of the circuit described above is the best/most efficient way to inhibit the amps!
:) ->bacause no energy is wasted into heat.
However a little bit of current must flow to the WFC, because you cann´t load a capacity without current. Stan Meyer memo sais: 0.001A