Lords of the Ring

[joe dirt]

 

[Motorcoach1]

Flat things , capicatance and feild reciver + capicator diode to next capicator feed back to second cap and revrese diode to first cap , gap the feedd back 200 thousath to cap.

[Jdo300]

Hello All,

After thinking more about kicks, impulses and magnetic implosion, I thought I would take some time to see if I could visualize what it looks like and how it?s behavior compared to a sine wave.

In normal EM propagation, a coil which has a sinusoidally varying magnetic field would induce a sinesoidally varying electric field in space. This electric field would then induce another sinesoidally varying magnetic field and these flip flopping waves would travel through space. If the coil was setup to create a directional field, the wave would be the same intensity as it propagated away from the source because the slopes of each induced E and B field would always be the same as it propagated.

But what happens when you create an impulse into the coil rather than sine waves?

To answer this question, I broke out my handy dandy graphing program and plugged in a simple function to represent a short voltage pulse. The function I used for this example is 3Sech(2x) and here is what it looks like on a graph:

For this example, this impulse wave represents the magnitude of the magnetic field from a coil which is pulsed. The Y axis would be magnitude and the X axis, time. Now, when this impulse occurs, it will induce an electric field in space which can be represented mathematically as the derivative of the impulse function. Here is what the magnitude of the induced electric field would look like:

Keep in mind that there would probably be a phase shift between the two which I am not showing here. But the important thing to pay attention to here is how that slope of this E-field through point 0 on the X axis is steeper than the rising and falling edge of the original pulse. This is the secret my friends?. Watch what happens when he show the derivative of the E-field; this is the B-field in space which I believe is the source of the ?magnetic collection? or implosion wave that the TPU taps for energy:

Notice how this wave is MUCH bigger than the original wave (height wise). The area under the curve may be the same, but we don?t care about that. The important thing to notice is the incredibly STEEP falling and rising edge of the main impulse, which by the way is the Opposite polarity from the original pulse. Hence Implosion! The return wave!

The incredibly steep edges of this wave mean that it has the capability to induce a lot of power into a coil! The equation for the induced EMF in a coil is:

Phi is the magnetic field density. SO this equation simply states that the faster the magnetic field changes the more induced EMF there is. Also, notice that they place that negative sine there? That is because the induced magnetic field is in the Opposite direction of the magnetic field in the source field.

But wait it gets better! Remember what they state in this article:

http://www.rialian.com/rnboyd/powergain.htm

?1. There is a threshold for these kinds of energy gaining events, just as there is a threshold for Tesla's "Magnifying Transmitters". (If the threshold requirements are not met, nothing out of the ordinary will happen.)

2. In many cases, simply a large and fast, highly energetic explosive pulse is enough to make things happen. When these situations are examined closely, there is always an enormous local acceleration, which is not necessarily of the acceleration of an acceleration variety.?

Quote from Steven:

?Has anyone ever done any research on what happens when we
create a magnetic field and revolve it faster and faster.
What changes and at what speed or frequency of the pulsed field
do things suddenly change??

The thing I want to point out is the concept of the threshold. It appears that in order for our kicks to have a significant effect, they have to be strong enough to make an effect?. So what is the point/threshold at which things suddenly change? Well, I don?t have any numbers for you but I did an animation of those waves which may shed some light on this:

Notice how as the width of the impulse wave is decreased, the induced B field starts to rise in height. First its negative peak is smaller in amplitude than the positive peak of the pulse. But as we continue to shorten the pulse width, now the induced field?s amplitude ?breaks even? with the height of the impulse. I think this is the threshold that we have to reach. Once beyond, you can see clearly what the wave does. But it appears that the on time is the most important factor. I did a graph where I just increased the amplitude of the impulse wave but that only resulted in a linear increase of the induced B field. So, based on my rough visual analysis, It is clear that we want the shortest possible pulse.

God Bless,
Jason O

[joe dirt]

 

[devilzangel]

@jdo300 - great incites !!! thanks

@joe dirt - great info .. thanks ..

devilzangel
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