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Hi Sven,
"I always think of the experiments with the diode split transformer from a TV where I have significantly increased over the earth cable, the flashovers on the spark gap."
When feed from the grid even through a separation transformer the high frequency of the spark generating current will take the capacitive path through the transformer. The primary and secondary sides are forming a capacitor if not wound with a grounded screen between the windings. When grounding the secondary side of the transformer the high frequency signal takes the path through the capacitance between the windings and completes the circuit through the ground wire. Even if the transformer isn't grounded it still has a path through the neutral or even the live wire as the grid is grounded somewhere else.
Electrical Surge Protection:
http://www.judgeelectrical.co.uk/domestic-electrical/surge-protection/electrical-surge-protection.html http://www.judgeelectrical.co.uk/domestic-electrical/surge-protection/electrical-surge-protection.html
Surge (spike) protectors:
http://www.industrial-electronics.com/DAQ/sss_8-0.html http://www.industrial-electronics.com/DAQ/sss_8-0.html
This article even has some scope shots of high voltage spikes. Both articles are about removing the spikes as they can be quite damaging to electrical equipment as Norman knows all about.
When using a battery powered induction device like a buzzer it still has a capacitive coupling to the ground or the ambient. Without any grounding each pole will have equal but opposite tensions (voltage). At least if the device has symmetrical impedance to ground. Half of the potential is then positive with reference to ground and the other half is negative with reference to ground. Touching any single point of the device shouldn't give a shock as the impedance to ground is very high. If grounding one of the poles or any metallic parts of the device that is capacitively coupled to one of the poles then a shock will be felt if closing the circuit by standing on the ground and touching another part of the device coupled to the opposite pole. This completes a return path for the spikes. As the spikes have very short rise times they pass easy through capacitive coupled parts which are very good conductors of high frequencies.
"I just think that one must bring the resonance in the high impedance and thus in higher voltages so that the electric field Primary is like the m"
Resonance is used for amplifying signals like in radio receivers. If looking at Pierre Cotnoir's device https://www.youtube.com/channel/UCbTYIW_yo65zgWdMlcA3s9A it doesn't look like running at resonance. At least it doesn't care about changing the load impedance. A resonating system has to be readjusted if the impedance is changed. I'm more into mixing fields into coherence as per W.B. Smith A. Melnichenko ets. and harvest the excess energy. I think this is what Cotnoir is doing. He even has several primary coils for mixing several fields which multiplies the power.
Regards
Ole
---In [email protected], <s.friedrich@...> wrote :
Hello Ole, Norman,
I can not really follow you completely. But it would be nice if we get to the point. If you want to create this neutral spike effectively you will always seem to produce a high voltage. The buzzer you have running with 6 volts but the impedance of the coil or the inductor is determined very high so that a spike ever arises.
Ole, the buzzer animation is really great, very good explanation.
It looks like I have the understanding that we should continue to search in resonance, in the reactive power, the key is still hidden, so I understood your execution at least.
I always think of the experiments with the diode split transformer from a TV where I have significantly increased over the earth cable, the flashovers on the spark gap.
I still stubbornly cling to the diode plug, because it's a tool in a transformer to create a saturation to cause this effect.
I just think that one must bring the resonance in the high impedance and thus in higher voltages so that the electric field Primary is like the magnetic field.
The question is from which tensions it becomes interesting, at some point the electronics will not participate anymore.
Ole, it would be nice for a few practitioners to reply to this topic, or I misinterpreted your previous answer.
regards
Sven