Kapanadze Cousin - DALLY FREE ENERGY

[d3x0r]

Hi All,

i am still following along, and did a test with my roundcore to see if my "normal RF" which is lightning the bulbs also could do this submerged in tap water.

I used an almost depleted 12V battery powering the Mazzilli oscillator which was connected to 550W of halogene bulbs submerged.

No shocks when putting in 1 finger, but when spreading out more fingers, you can feel the voltage build up.
A submerged probe tip shows the effect.

Video here:  http://www.youtube.com/watch?v=b2GqOvoMPko&feature=youtu.be

Regards Itsu

Really this is to everyone that replied after also..... Tesla hairpin circuit....


http://www.youtube.com/watch?v=0DpZ5Ecgt9c


What's the difference?
Well, if the load is being driven purely by inductance, which produces voltage, you'll get shocked.
If you isolate the load behind capacitors, then it's driven purely by the electrostatic, which produces current, you won't get shocked.


Interesting phenomenon (again, having read eric dollards interpretations of maxwell, et al.)  there's a change in electromagnetic force per time that results as E,  and a change in electrostatic force per time that results as I....


I guess Dollard's book, 'The Lone Pine writings' were released for free, so here's a copy of that.... also... http://fourquadranttheory.com/


Apparently, if you're driving a resistive load, which is really a consumer of inductance, when driven with an electrostatic, will want to go through a higher resistance load before the lower resistance of the hairpin... I'm sure the math works out.  or maybe it's the inductance of the hairpin... I dunno, was looking for others that showed that a shorted hairpin also works to drive the resistive lightbulb... (which in theory it could, but given the difference of resistance of X and 0.0001*X, I'd think there wouldn't be enough voltage left to light the bulb.... (maybe it's the next video that anguswangus did)


http://www.youtube.com/watch?v=AvCZG5ccPsk (another guy, demonstrating waveguide propagation features)

[skywalker66]

I have posted a screen shot of the circuit below. It is quite unusual in the way that the primary and secondary are in parallel!!

Thoughts anyone??

Cheers Grum.

Hi ! What you call primary is in fact two toroidal choke, most like 100uH or so. The real primary is what you see as secondary.
Regards

[skywalker66]

@Grum
Please see altered photo below

[Grumage]

@Grum
Please see altered photo below

Dear skywalker66 and MenofFather.

Many thanks for "putting me straight"!! Yes I see it now!! A method of getting away from the split primary winding.

And with double the inductance!! I had posted earlier in this thread that the more inductance you had the better the output voltage. This scheme has a dedicated inductor for each transistor.
I will definitely have to look at this circuit once my Scope is repaired!!

Dear Itsu, are you in any position to give this circuit a "Road test"?? I am well aware that a rewind would be in order and more importantly your other commitments. 

Cheers Grum.

Addendum.  I have just watched your video Itsu. (After this post) I think you need to look at the "rising volts" phenomenon!! That was surely MOST interesting!!

[d3x0r]

http://www.transformacomm.com/en/tech/tesla/tesla-1891-05-20-lecture.pdf


"If a thick wire, provided with a ball at one end and with a point at the other, be attached
to the positive terminal of a static machine, practically all the charge will be lost through
the point, on account of the enormously greater tension, dependent on the radius of
curvature. But if such a wire is attached to one of the terminals of the induction coil, it,
will be observed that with very high frequencies streams issue from the ball almost as
copiously as from the point (Fig. 13). "


inducted voltage vs static voltage



"It is hardly conceivable that we could produce such a condition to an equal degree in a
static machine, for the simple reason, that the tension increases as the square of the
density, which in turn is proportional to the radius of curvature; hence, with a steady
potential an enormous charge would be required to make streams issue from a polished
ball while it is connected with a point. But with an induction coil the discharge of which
alternates with great rapidity it is different. Here we have to deal with two distinct
tendencies. First, there is the tendency to escape which exists in a condition of rest, and
which depends on the radius of curvature; second, there is the tendency to dissipate into
the surrounding air by condenser action, which depends on the surface. When one of
these tendencies is at a maximum, the other is at a minimum. At the point the luminous...."


I know it seems like I'm askew to the topic and not paying attention; but I really am just trying to make sure that the red green and blue lights are all on, so you're not color blind... and seeing a single red scale picture.....