All language subtitles for Rick_video_EN

Now let's look at the Kapanadze system, everyone says his name.

So here's just, one particular diagram that is better than the other.

This is just one that had the Russian on it and had a lot less detail.

So I just want to go over a couple of things here.

There's been a lot of replications of this, and it really heavily depends upon the ground system.

And I want to just say a couple of things about this.

So M.O.T Microwave Oven Transformer be very careful, It's a deadly device.

it's will kill you.

So don't be playing around with this stuff guys.

Unless you really know what you're doing.

So you have basic, transformer that you're driving.

You can drive it with, pulse width modulator, or you can use a ZVS system.

So this is not critical what you use here.

Again, high voltage output and, high frequency.

You have your spark gap.

So notice the coil arrangements here.

So this is all wrapped around one tube.

In this case, sometimes you have multiple tubes.

Different coils are wrapped in different places.

So it's a good idea to actually wrap on

in such a way that you can actually move them.

So are multiple tubes, and, I just want to say a few things

that I've found out in this particular system

from others who have replicated it.

so notice again, the caduceus coil arrangement here

counterclockwise 20,30 at this position

over to 80 to 90 turns clockwise.

And then over here, this is kind of a.

A resonant, critical coil arrangement right here.

Six turns counterclockwise. So...

What you have to realize it's not so many turns, but it's the length of wire, and that's where people go wrong,

I believe in this particular setup.

And then, of course, the positioning of where the coils are positioned in relation to each other.

So now notice here.

So this becomes like the primary and secondary.

In one system.

But notice also this wire that goes through the tube

and those the big thick black wire

with all the captains assistance you always have

the big wire going through here.

Consider this as a capacitor.

You got a look at the insulation as a capacitance of the insulation

on the primaries and this as a secondary.

So even one wire or a half of turn of wire becomes a secondary.

Or you can look at is the primary if you want to look at it that way.

So again like I said, if the earth is the Real source that you're taking from.

And then this would be considered the primary.

So what do you find in the captaincy system if you look carefully at their pitchers?

Notice, the easiest way to make a capacitor is what?

Answer the question.

What is the easiest way?

Styrofoam.

Making styrofoam cups.

So you will notice in capacitance systems.

Several pictures will show.

Styrofoam or polystyrene foam.

Between plates.

Or within the tube itself.

There's another picture to where one of the wires comes up.

I'll see if I can find it here.

So "Romero UK" and "England" has his own forum and he brought this to us.

So this is the one capacitance system.

So he points out that this is a copper tube, ok?

You just have to think of that is a wire big soldered to the other copper tube.

but what he said was "no" this tape is covering up the fact that this wire is going through the copper tube.

So what does that tell you? It's becoming a capacitor.

So this is not just a wire.

He's enhancing the system by adding a capacitance value to this.

You know, you've got an inner wire, an outer wire and insulation in between.

And then he shows, a couple of other pictures.

His particular model where he was adding these sheets.

Between either foil or...

...Copper disks.

And so he showed...

A couple of these models. Not in this picture.

The cheapest form of capacitor.

Those are the two significant things about the Kapanadze system.

That the wire connects to the ground,

and it's a good thick wire going through the center of the tube.

So the insulation factor in the wires,

the orientation of the wires, and the caduceus arrangement,

as well as the capacitance in the inductors themselves,

are key elements in this creating resonance.

It's just going to enhance how much you get out of it.

But with this particular vendor, he's not some great skilled guy that knows all the math.

And he he can make the system work

without having to use even a solar scope, I believe.

Or, you can just wind it and just do it.

So it's not as hard as people think.

There's several key things to do just right.

But you can see his videos.

I think some of these things are hidden.
(My aim in this video is not to get people to do any particular system but rather to get a feel for how people have done these processes, to get the big picture and see your options)

But again, where's this coming from?
This is coming from the video system.
(My aim in this video is not to get people to do any particular system but rather to get a feel for how people have done these processes, to get the big picture and see your options)

so to get the outputs that Kapanadze and Don Smith are getting, they will not tell you everything.
(My aim in this video is not to get people to do any particular system but rather to get a feel for how people have done these processes, to get the big picture and see your options)

Don Smith admits that he shows you this system.

A guy has just replicated it the other day, like two weeks ago,
(Gerson Paiva https://youtu.be/RFSQWUTDQF0)

I thought it was Don Smith's actual board because he made it look exactly the same, and he demonstrated it.
(Gerson Paiva https://youtu.be/RFSQWUTDQF0)

And, the only thing I don't know about is the diodes, which ones he was using.
(Gerson Paiva https://youtu.be/RFSQWUTDQF0)

If that guy was able to find the exact diodes that Dan Smith was using.
(Gerson Paiva https://youtu.be/RFSQWUTDQF0)

Now, here's the thing I want to say.
(Also the neon transforme is no longer made so there are some uncertainties about using newer types)

I worked with famous inventors, who you mentioned in this video, but, one thing I learned was...
(Also the neon transforme is no longer made so there are some uncertainties about using newer types)

I'm dealing with thousands of people over all my years.

I've learned, especially with adventures, that you have to learn to read them.

And I'll say this one particular inventor is very difficult to understand.

He speaks in his own particular context, and you want to really answer your questions that you asked.

So you got to realize.

People give out what they want to give out.
You have to learn to read them.

You have to learn to read between the lines with Don Smith.

He had several strokes by the time he gave us the videos that we had 10 years ago, 15, 20 years ago.

He already had these, several strokes.

You can see it's drilling.

I didn't work with Don Smith "nice" I don't wanna talking, but.

He admits what he's describing in this particular system, in the one case he describes.

This this particular capacitor as 10,000V.

It was right in front of him.

You can't listen to everything he says is absolutely accurate, because sometimes it's just speaking from memory.

And you have to read what's important, or you have to listen to what's important.

When he says, all this is not important, you can do this without...

the...

Without this.
(He said you can do this solid state)

He mentioned several different things you can do with that.
(He said you can do this solid state)

You can see, no coil here at all in one of the systems.
(He said you can do this solid state)

He just goes from one transformer to another with a spark.

What does that remind you of?

I wonder if it reminds you of this.

Because that's exactly what it is.

In other words, he knew this.

He doesn't give any credit to Carlos F. Benitez.

He says he didn't know Tesla did this sort of stuff.

I guess credit to Tesla. He says he didn't get it from Tesla.

you obviously worked in a lot of different industry to know.

Some of these things he talks about having the old TV was a free energy device.

he mentions that several other devices.

He says they are over unity if you understand them

and you can utilize them.

He obviously talked to people and was influenced somehow to come up with the system or it could be

I've been very intuitive to just figure it out. What somebody already figured out 80 years before him, with Benitez system.

In other cases, you have to learn how to read these people is what I'm trying to say.

It's learned how to read Tesla carefully.

And when you listen Don Smith, he talks about what's important, what's not.

And he says you could do away with some of these things.
For example, this doesn't need to be a center tap transformer.

you could just have one diode here...

He comes back to the ground terminal...

There and...

He talks about...

If you change these values, you could get a higher output.

He says this is not needed at all,

because, in fact, the battery charging.

So he's running off of inverter here, right?
(The choke is not need to recharge the battery becauser the primary side of the circuit will do that when it creates a standing wave. But it's still needed for the main output. But again, we are to avoid overestimating every detail.)

140W inverter.
(The choke is not need to recharge the battery becauser the primary side of the circuit will do that when it creates a standing wave. But it's still needed for the main output. But again, we are to avoid overestimating every detail.)

Cheap RadioShack inverter.
(The choke is not need to recharge the battery becauser the primary side of the circuit will do that when it creates a standing wave. But it's still needed for the main output. But again, we are to avoid overestimating every detail.)

He's got a real STAC or a variac light dimmer switch that he's cutting the power in half.
(The choke is not need to recharge the battery becauser the primary side of the circuit will do that when it creates a standing wave. But it's still needed for the main output. But again, we are to avoid overestimating every detail.)

So he's cut the voltage down so it doesn't want to run at 9000V.

He wants to run, 4000.

If he wants it higher. He said he has to increase all of these values to produce more power.

So he could, with 140 watt without this limitation, set this whole thing up even higher than 6000W.

He said some pretty high numbers though in his video, but again, some of it sounded like some memories, some of it in some very accurate some of the components he was talking about...

I don't think this particular value of 6000V was necessary.
(He talks about that model is several videos so it's important to look at all of them to get the fuller picture.)

It's probably the kind of things you had on hand.
(He talks about that model is several videos so it's important to look at all of them to get the fuller picture.)

Like, I use this all the time.
(He talks about that model is several videos so it's important to look at all of them to get the fuller picture.)

Not that I have to.
(He talks about that model is several videos so it's important to look at all of them to get the fuller picture.)

You know, obviously there need to be possibly more than 2000V.

But when you start finding these parts from your participants,

you take what you can use and just throw it on there,

and then people will go on Google Gaga about a particular value, which may not be critical.

So he says, don't get too hung over on these,

particular values here.

He did say you had to put this on to make the system, in the sweet spot or in resonance.

He said that this creates its own resonance on this side.

And, there is a particular diagram and some guys trying to debunk

every free energy system out there or some of these guys,

and they make a big deal about this one particular diagram

that has this capacitor and the diodes on the other side of this spark gap.

And they can't do what it's saying because it's incorrect to draw.
(There is definitely many mistaken schematics floating around, and who knows why they were put out as they are)

For whatever reason that schematic are out.
This one is accurate and works, the other one didn't.

but again, when you look at patterns and you look at some things, therefore people who know.

They aren't for "Joe Schmoe" who just now landing on electronics.

and pick up and just do, and then not know what they're doing,

because you shouldn't be doing that if you don't know basic electronics, you shouldn't be playing with this stuff,

because that's why I give you a basic kits I give you.
(These particular system are very dangerous as they are High Voltage and Amperage)

These systems so that you can start playing with it and start getting understanding with it and their failsafe.

You can see over unity very easily, within a half an hour.

This particular system two.

You can do this in minutes, you know.

I show that I focused on that to educate people.

But again on Don Smith system higher voltage.

You're you're asking for trouble with a danger to yourself just from a conventional level.

You can really hurt yourself with a high power transformer.

Even with low current milliamps, you can still cause a lot of damage, even from a conventional aspect perspective.

But you can also do other damage to your body that is not really, understandable conventional terms these days.

You can harm your organs and cause a lot of problems, internally with your body, as well as destroy your electronics.

So this sort of system needs to be encased.

If you ever make this system, you need to understand where I'm going with...

That will probably be my next video in a couple of months.

I did fully in clay encase this, and I actually made an energy receiver as well.

I did that with the violet ray device to I'm putting the violet ray device into my special system.

You'll laugh when I tell you what it is.

But I'm not going to tell it right now.

I was able to get a lot of usable volts out of this system.
(I need to fully develop it before I recommend it or make it as a product)

that is normally going off in all directions and affecting you biologically, affecting all, the local environment.

So this kind of system has the spark app.

It needs to have a type of grid tube, but even not just in the spark gap itself, but across all the inductors.
(The open spark gap creates ozone and other harmful changes to the local enviroment so there needs to be safeguards like enclosed and shielded gaps) -GDT-

Because we're dealing with a disruptive discharge, more power it creates, the bigger is radiation area.

So don't play with fire.

Don't be tempted by the great outcome output of the system.

If you are going to do this system and there aren't enclosed it, put it far away,

but you don't go near it

make it like a transformer that you see, high voltage system

keep far away from it, like your high voltage lines.

And then all this radiation, different type of radiation.

So that is, what I want to talk about again, notice the coil arrangements going in this direction and that direction.

Again, you don't really even need the coil because you have the, other system.

You can ground this.

This is where the ground connection was, that he said, he mentioned this several times.

There is no none is shown in this diagram here, but right there in the center tab.

(There is also some debate about grounding the center tap on the neon transformer)

And I'll show you the picture again.
(There is also some debate about grounding the center tap on the neon transformer)

(There is also some debate about grounding the center tap on the neon transformer)

So let's look at a close up.

No.

So there's one angle of it.

This jumper may not be right

So there's a center tap coming right here.

There's the capacitor, the tune capacitor.

And these are diodes.

There's also diodes here.

There's a spark cap.

There's a neon sign transformer.

This is the, stepdown, dimmer rheostat.
(There are two types of dimmers depending on the neon transformer you use. Variac may not allow the NST to work)

(There are two types of dimmers depending on the neon transformer you use. Variac may not allow the NST to work)

Veriac type of or Dimmer here.
(There are two types of dimmers depending on the neon transformer you use. Variac may not allow the NST to work)

Cheap RadioShack

i'm assuming a, modified wave.

Probably not even a pure sine wave is necessary.

Again, don't get all caught up in the details.

Like a great system.

He's using the transformer... sorry, the 5000 watt.

Inverter

but he kind of simply stepped it up with another transformer.

Just like, you know, you need a system or this system here.

So that's that coil there.

There's another angle, I have this choke.

this was meant to charge battery, but he said in this video that the little battery being in the vicinity will charge itself up.

So it's like a 7.5 hour 12 volt battery.

And he did not need to actually use this choke, which was helpful to charge the battery back up as shown in this diagram here.

(however it is necesary for the main output depending on what are you doing for the output)

Right here, output to recharge inverter battery.

so this is what we found.

Batteries can charge up even in the vicinity.

Like I said, with my zero point process, I can do that.

So now let's look at maybe a couple other pictures.

That was just something different.

So again, this one right here in this picture is notice what's missing from this picture.

You've got your inverter, so you got your input here.

inverter going again to your high voltage going on to the bridge rectifier.

You said these are just a four way bridge.

You got two diodes in here, must be four diodes.

then coming out through.

(Part of this system is not shown where the other side of the transformer center tap and the big capacitor cable are connected)

I see one wire here and one wire there, coming out through here.
(Part of this system is not shown where the other side of the transformer center tap and the big capacitor cable are connected)

Anyway, these are some pretty serious caps.

Three terminal caps, and, there's no coil.

There is no coil here.

Now, this was a special transformer as well.

So you're going to get higher gains out of this transformer, but you still can use a regular transformer.

That's important to understand.

Like it seems like almost every one of Don Smith's.

Systems use something like he said, he kept insisting that these particular diodes, you can't get them unless you can.

For me, looks like these are exactly the same.

But I think he was meaning you have a world of parts in order to get these. (25KV Diode)

since his day, these parts are being available, and so,

I don't think there's anything quite exotic in this particular model.

But when you see one of these tubes in his one video where it's wrapped with PCR, material is a material, whatever you call it.

(See second 30 https://www.youtube.com/watch?v=r573nf3-oWg)

Then you can see that this was another gain,
another system was gain.

And he uses that the same transformer.

He's going to get a higher output.

But he downplayed those things.

Like In other words
(Not downplay but they were not absolutely necessary to make it work)

while they may give you a couple of times over output
(Not downplay but they were not absolutely necessary to make it work)

you still could get a reasonable output
(Not downplay but they were not absolutely necessary to make it work)

from the normal way of doing it.
(Not downplay but they were not absolutely necessary to make it work)

This particular model he talks about.

This is basically like the...

The MEG system.

but he actually, by accident, it just used one wire around here.

Instead to use 1 wire use 2

and then he pointed the exces or extra wire up as an antenna, and he got many times more the output.

So again, you have your neon sign transformer here.

It's just pumping it up.

And then I think that's the bridge rectifier or and that's it.

Very basic system.

So again this is all the needed system with adding a few.

modifications here and there.

So here's some different schematics that people have stumbled over.

Trying to figure out what each part is is a pattern.

There's another angle of that same system where you can see it's just clearly one diode here and one diode there as half bridge.

Coming through there.

Dangerous High voltage.

this one.

It's an interesting arrangement.

Here's another Don Smith Rotating Magnetorestrictive Metal Wheel

I can't even read now, I'm so tired.

it's a metal wheel, but notice again that the coil arrangements, the capacitors, the transformer.

that seven amp hour battery again.

Here again is another description or diagram of... Here's something interesting to read.

In this system input power is almost completely REACTIVE at RESONANCE with output in the load being real inphase, of course. Variation of the magnet positions will often result in an increase in the output without any change in the input. You will need two...

So you got the coil coming in here, coming back around the same direction, going out to the load.

Low power sine wave oscillator.

And.

You're creating this and you're getting again.

The magnet configurations north, south, north, south and then the south pole right there.

And this system input power is almost completely reactive at resonance with output in the load being real and in phase.

Of course variation of the magnet positions will result in an increase in the output without any change in the input.

So this is what we see, all these types of systems you get a sweet spot.

you get to a point where you can load down, like I show on my motor systems,

where we load down the generator coils to a certain extent and the motor speeds up and we short up the coils, the motor speeds up.

If we remove the motor from the generator...

Sorry, short out the generator coils, I meant to say. So we show in...

If we remove the generator coils, the hole motor will be slower than shorted out generator coil.

Now this is some people try and say, well... Because the generator coils there, it's acting as the load slowing down motor.

But if we have a faster RPM faster, less amp draw without the generator coils in there and shorted, then my point is made.

That's the way I made my motor to demonstrate that aspect of things, to show you that just like Tesla's picture

where he was running up the...

This particular feature here.

And the like of his pictures.

Where he's got the load shorted the copper bar.

He's still running these loads.

So the point is, it doesn't make sense, only in disruptive discharges, high frequency, high voltage, good directional systems.

can you notice that?

That kind of gain.

So shorting out coils.

Sometimes things are opposite where you think of.

If you just think in terms of resistance and amperage, you're never going to get anywhere.

You're limited by this little black box that you're stuck and can't see out of, because you need a clear box,

and you need to think about the magnetic component of the electricity or the energy, and it behaves a different way.

It's another part which.

What Don Smith talks about is the energy spin.

This is his own terminology.

And he says it spins this way and produces this.

One aspect of the energy, and it spins the other way and create the other,

and then he brings them back together to have the full power.

So separating these is a learning experience.

The difference between all the different types of energies and processes.

And so this particular system will give you a good idea

of the different types of energies. But I want to recommend to go to the beginning.

Start with, considering everything about Cook's patent (US119825A)

and read his article, which I'll put the link up on my page.
(potentialtec.com)

Also go to Benitez.

And read through these patterns.

Line by line.

I brought up all the major, important points, but get a working feel of it.

Build this, this is the easiest one to build.

It can be done very quickly.

You can make your own induction coil just for the transformer, and an interrupter could use a buzzer.

You know, you could use a bunch of different things to create the oscillation.

You know, we use transformers nowadays and...

To create, but we sometimes... And doing that, have a much greater losses and we don't have.

Always the best.

Way of creating these...

Higher gains.
We all over doing.

so, look at all that stuff I think I've covered everything I want to cover here.

There's so much more I usually take two days to do this,

this presentation, so I can't do everything, but I covered over most of the ground, pretty much.

One thing I could just draw attention to.

I'll put this link up to Tesla coil safety information.

There's 14 sheets of detailed information here.

Some of it is just an outline, though, of very serious dangers of Tesla coils.

And then that would relate to all these types of systems that are higher voltage, higher frequency, higher amperage, systems.

Again, watch out for ozone, don't breathe it in.

many people don't realize.

The danger there.

All sorts of other dangers here, so look at this.

length.

And.

I don't want to hear your wives.

I've had two different wives tell me, about their husbands experimenting and how, things have been,

very bad for them because of the Tesla coil.

Even under 1W of power

Save your your family, save yourself.

Don't hurt yourself, don't expose yourself so you can see again where these were all at.

344, 71.

Start it all up again and keep on going.

Once the capacitor falls, hear the sound it was...

The whole system. Now again,
oh, I gotta bring the camera around.

i'll show this while it's running so that you don't think there's any kind of monkey business.

This is just about to stop recording anyway, so you can see again, the transformer I'm using here, that's the bigger gauge wire on it.

You can consider that the secondary side and...

How I'm just running.

Okay, my camera just did stop so let's go back again.

i just stopped it for one second.

So let's look at the brightness.

Of these lights.

We're not talking about.

A lot of power, but it is excess.

(24.3 - 11.8 = 12.42V @ 50-90mA Depending on the interrupter setting on induction coil for 0.6-1.1W while running the lights at that power and charging batteries)

so there is the oscilloscope.

You can see the.

The visions.

And then let's look at this.

More closely, you can see.

Lets's stop it.

So this is stopped and I have to just kind of bounce it back.

And see this thing goes up and down. That's why it will change.

Different power, you can you can hear that's a little bit higher power level.

And we'll look at the meter more closely here now.

See now it's a little bit higher. So I can adjust this.

see it's 86, i was doing it. it'll drop down.

different power levels.

That's how I change it.

Kind of will settle there.

I had it down about 50.

So again, if I put this in a different spot, oh, what is different?

What is interesting about this is, if I do connect up.

Here.

We could see 60.

But let's go over here between the two negatives.

42.

And let's go over here.

29.

You know, this is the other side of...

So we have different averages.

Now of course this is not your best meter to use, but you can see that in a lot of these systems.

Even in my system where we're running, the motors you can actually place.

You can place the meter here and here.

There's going to be a difference at this wide terminal.

Between what goes into the motor and what goes here.

There's going to be a difference of amperage right there.

And that's kind of splitting the positive as well, when you consider that in a double sense of the term,

because we're splitting the positive between here and there, and we have a floating ground system here.

So yeah, this is the whole thing running.

I'll show you this too because in out maybe you will see this kind of.

Changes when I...

So we'll look at this.

As I push the tube in.

They can get...

So you can see pushing that in and out will change also the voltage charging rate.

So pull it out.

Before.

Yeah, it's just a little bit different.

And then of course, like I said, running this.

Let's look at what we were doing by.

Taking off the the capacitor right here.

Actually, it's going up in this case.

It's changing.

And I put it back on.

So I guess you could see this whole scope going crazy over there with spikes.

So there's a on...

They're off, see the point it goes down .1
So there it's still off, and now it's on.

so you can see a gain sometimes.

It's definitely not as good to leave it off.

Now you can run this, like I said, across.

So you know, it's already stop.

So you can ride across here like normal.

So you can hear the difference.

See this is still registering.

This eventually will ruin these meters.

He's digital meters get ruined with this high voltage, high pulsing.

And so let's look at this and then it's here.

So you get a close up view.

What I'm talking about.

So I had disconnected that it had been originally connected through right here.

This wire is broken so you can see the kind of rust on that.

The wiring and and...

So I just connected up to those two wires coming out of.

You could see they come out from where the coil goes in.

Nothing special there, but you got to kind of map all this all out.

To figure it out.
Well, now wants to start up again.

now, the thing about it is, you got to be careful.

If it does, put a dead short across it that you...

Recognize that?

So that you don't just run.

Directly through.

Both primaries here.

And not create the pulsing.

So there you go, at rest again.

And so yeah, there is it maintains the batteries while it's...

Gives you a load.

Now is running bigger loads on this too.
With these.

100 watt modules.

Here I put a bridge rectifier across these because I don't want them to get damaged, so we can run this.

So that creates the light that I need.

Good charging. So there is a sweet spot.

there is a sweet spot on this.

now I'm using the secondary winding on there.
I can also close the switch and run that...

from the primary winding here.

But that's another whole story, anyway...

You can play around with this a lot and, do some fun things, and we'll just show you again what we're doing in our motors.

Except you don't get any free mechanical power out of this.

As you do the motors, so that's why I generally don't go this route.

because I like to get, you know, an additional source of energy through the batteries.

Welcome to the Renaissance Charge videos.

This is video number 4, I believe (It's 5).

And this is done after the other.

The next part of this video but, I decided to, show a bit more here in the meantime.

Still working on editing the last part of the video.

And there may be a fifth video as well. Actually, maybe a lot more.

so what we have here again is going back to the, one.

The lead is set up, in which... The first patent... I think the third section.

and so we're running 24V in 12V here.

And we have the induction coil here with its upward secondary winding. Now, there's two Windings of...

Wiring inside this particular coil here.

This one right here is an example of an AC one that is, a mobile radio device only has one winding.

It's not what I really want in these experiments.

I'd like to have the secondary windings completely isolated.

So in this case, I'm actually, running off the opposite.

We had normally, would think about running it.

First of all, I'd rather have my secondary wiring completely isolated from the primary winding.

And, it's not that way.

It is connected to this one wire, as I showed earlier video.

It's so wrapped around itself, I'm not going to try and separate them and ruin this coil.

So I'm leaving it for now connected.

It is, set up this way, anyway, in one pattern.

That I have shown the diagram before.

Try not to say them too much this time.

Well, so I say well or so.

Something else like that.

The.

So we're running off of the secondary.

So the secondary is actually creating the, influence of the primary.

Just doing that to bring down the apps.

And run it actually backwards, not that I should be doing that, but it still works.

so that's the way I have it set up here.

This little red wire here is, the smaller gauge wire, the secondary wire and...

The primary is usually...

Run that way with the switch closing.

What I have here.

What's very odd, what just happened there.

It must have been because the capacitor.

It crossed us that it just made the...

So I have two oscilloscopes across either points.

Two probes of the oscilloscope across either side of the induction coil.

So you can see, the difference in the waveform and...

What we want to look at is the relationship of this capacitor.

I want to talk about two different things here in this video.
One is this set up the way we have it here.

and then maybe I'll go into the final pattern that we've talked about, at the last video.

or actually we're going to get into this the later part of this video.

So I may include that section after the video that I've already done.

I'm not sure yet, I'll edit it.
(I decided to put this section of the video at he end rather than before)

I want to talk about here the difference between.

The capacitor across the contacts.

The points of condenser in your old...

Gasoline automobile.

When you had points and condensers.

When I was a kid.

Normally that's across context.

But in the beginning patents I showed how we put across... Because we're running something unique here 24V, 12V, 24V, 12V.

I put it across the negative according to the enhancement, of the pattern.

So you'll be able to see the different waveform here, we do that.

and what's interesting is you'll see how the...

The voltages change and they kind of...

Take a second to adjust.

And, they go up and then they come back down.

So that's interesting how it's, regulated to the load.

So what we're doing here with this?

Going across, not the terminals.

Remember we said, Benitez said, you don't have to go across the contacts to, use the secondary application of this capacitor

no, this is a really big capacitor.

So 2000 volt, 1000 microfarad capacitor.

And, it is actually polarized, apparently.

I didn't realize that, but.

I'm still going to use it.

I've used other capacitors and in this particular case it seems the bigger capacitor works better.

Not much difference than was 10 microfarad, but it seems to make difference between the .0
(That is the first patent's last circuir, whereas the last patent circuit's capacitor after the spark gap should be a low, like 0.2uF High Voltage Capacitor)

(That is the first patent's last circuir, whereas the last patent circuit's capacitor after the spark gap should be a low, like 0.2uF High Voltage Capacitor)

15 microfarad or I've got a couple of these, high voltage small...
(That is the first patent's last circuir, whereas the last patent circuit's capacitor after the spark gap should be a low, like 0.2uF High Voltage Capacitor)

capacitor there.

On his particular plates, I don't want to people get confused. I'm going to run the capacitor.

in this place in which Benitez patent makes a big deal about.

He says as many times as you can, charge discharge this capacitor, you will...

Increase.

The, voltage power of this particular input battery and, therefore charge up these batteries more readily.

Now, the other thing is, I do have another capacitor here that I will put across the points and...

You'll see the waveform differently there.

Now, in that particular case.

That is a different thing than the final patent.

Which we'll talk about at the second part of this video.

what we want to do is...

Essentially they do the same kind of thing here,

but reducing the batteries go to 2, 12 volt batteries.

The negatives are still connected together.

What we're doing is one battery is powering.

Either an inverter, with a variac or...

Actually an inverter.

going into, a transformer.

Stepping up the voltage.

Not too high, but you can go really as high as you want to.

But in his patent, he wasn't going to high because of the limits of the diodes that he was using, or 600V or something like that.

So I think the higher voltage is more biologically dangerous too...

And I do have a solution to that.

I will be bringing up the near future and working on that day and night.

Well, in this particular last patent where we have the two batteries

and what we're doing is we're running the... either we can run a DC motor that ran an alternator as it says on the patent,

or we can run directly into induction coil, or nowadays we can run,

like the Don Smith system, the inverter with the variac, we can control, one voltage V1,

add capacitors in the spark gap.

The number of spark gaps here somewhere... in the violet ray device is big spark gap here.

So you run that.

This is where Don Smith did a great system, in all these are the same

where we're creating off of a 12 volt or whatever voltage battery.

Relatively small, relatively, little voltage DC source, which then can be, recharged.

In this case, we don't want to run the recharging at the same time is the input, but this is not really good for a battery to do.

So interestingly, Benitez never did that and (Edwin) Gray ever did that.

So what he did then was went from the 12V in my...

My diagram, which I put on the front of the last video.

You have...

12V going into the induction coil as a replacement to the alternator.

Which that's the the first way he ran it.

And it seemed to maybe be a better advantage.

Maybe not because you have your losses in there.

But you can tune it to go on to resonance, which then could probably add to the whole process, you know...

But I am the type of person that I'm trying to get away from, making things too difficult or, having things fall in and out of sweet spots and all that.

I'd like to keep it fairly simple for everybody to do.

So going into an induction coil is great.

We have this spark gap in that as he talked about.

But we also want to go directly then into an actual spark gap.

And this is where if you have just a strained transformer you're going to need that.

If you have a battery going into an inverter into like a Neon Sign Transformer.

Shall show soon.

And then you've got from there going into the spark gap.

If you're paying attention to.

Benitez system, like I'm showing the next part of this video, you'll see how it goes into, after the spark goes into a coil or, sorry, a, capacitor condenser time.

And then it goes into a bridge rectifier and then back.

By actually, there is a rheostat.

And it's probably not just your regular rheostat like this.

This is probably more of... A real doctor, type of... like that cage coil...

They call it... The name escapes me right now

But anyway, in which there is some inductance involved because he makes reference to that in the pattern.

Most important quote in the patent showing how the gain takes places and is a major secret to unlimited power. This is all that is really important to understand.
Extending into the arc chamber are the poles of a strong electromagnet, the coils of which are in series with the arc, so that their exciting current is the arc current.
In this manner, the strong magnetic field which exists between the poles of the magnets acts on the arc, and owing to such action combined with the influence of the voltage developed by the secondary 46--47 of the transformer, it happens that said action and influence being about equal in value, are each of the alternatively greater than the other, so that the voltage across the arc automatically rises and falls.

Therefore, when the action of the magnetic field is greater than the voltage produced by the secondary of the transformer, the current produced by said secondary has not enough pressure to pass across the arc and the condenser is charged, by an instand afterwards said action decreases in value, and the condenser discharges across same said arc. On the other hand owing to the oscillatory nature of the circuit, which is arranged with proper values of capacity, inductance, and resistance, said charges and discharges of the condenser can be obtained several millions of times per second if desired, and in this manner current of a great number of amperes can be secured through the oscillating circuit, even with a small amount of electricity stored by said condenser. (page 2 lines 49-57, page 3 lines 1-10)

That you've got to really pay attention to the inductance, the capacitance and the...

Voltage, of course but there was one other factor is, you know...

voltage can be varied in very wide limits, and therefore it is always possible to attain the required conditions in each case, in order to produce a given number of oscillations per second: The capacity of the condenser can be adjusted to a certain value by increasing or diminishing the surface of the coatings. The resistance of the circuit can be adjusted to the required value by varying the length of the arc in the Poulsen lamp (or spark gap) or varying the number of lamps connected in series or parallel in the circuit. The inductance of said circuit can be varied by winding part of the same circuit on an insulating frame, in such a manner as to obtain the number of turns required to produce the desired inductaonce; and finally, the charging voltage can be regulated by increasing or diminishing the number of turns in the secondary of the transformer, or by varying the diameter of the wire employed in such coil.

Just in periods and things. So forth.

What we want to look at or we have to consider in, for example, Don Smith system where he has...

The...

After he's got the...

He goes from battery to inverter to the Neon Sign Transformers whic is big,

you know, it's a small transformer that boosted up to maybe 2Kv or 3Kv.

And then from there it goes to the spark gap and then a coil...

...This is coil arrangement.

And a lot of people are kind of stopped at that point, they don't really care to get into resonance.

and and they really fail to see what the need is for showing.

And actually if you look at Don Smith's system, you'll see another example where he runs a Neon... Or actually the inverter...

I guess internally, Neon Sign Transformer or actually directly into a high voltage transformer.

From there, he just goes through some diodes directly to the.

To a big capacitor bank

There is two wires on one board the...

That seemed to be, beside each other so I'm assuming there would be a spark gap in between that.

at that point, or some other factors, but there's no coil needed, If you listen to this video where he's in his office.

oh, 20 years ago, I think it was.

And he's interviewed for about 45 minutes or so.

And in there he says, all these things are not necessary. (Video 4) In other words, the the coils and...

and, various...

So people were looking for that, put it in there that's what they're expecting or something along those lines.

So there's various ways to do this and Benitez system is a simple way.

now where Benitez system focus is in.

and I'll get that next part of the video.

is the spark gap...

The way the spark gap is named directly quenched.

And, I think there is a big part of it where you're picking up.

The output from the spark at this angle of here, which is where, the magnetic....

Magnetic fields are produced I think they're picking up they're also collectors in the system.

Just like a (Edwin) Gray's tube. It's [collected] at right angles, the spark.

And we'll get into that later on, I'll do some demonstrations of that there's a couple of them on the internet, some really old, old videos

to look at, and it doesn't seem to be much activity the last couple of years, being posted.

So it's surprising to me that somebody hasn't run with this.

so many years since it's been known, or at least publicly run with it.

(There are many private systems like this all over the world but not sold to the general public)

So yeah, let's go back to this.
(There are many private systems like this all over the world but not sold to the general public)

Let's look at the capacitor values now.
(There are many private systems like this all over the world but not sold to the general public)

With that one capacitor in the last, model I was talking about with the two batteries.

The last Benitez patent. So two batteries.

one battery powering the induction coil pointing to the spark gap.

Then.

Going to a capacitor.

And then to the bridge rectifier, then to the charging battery, and you run your loads of the input battery actually according to that.

And so in that case we want actually a small capacitor.

And of course, related to the voltage, usually double the voltage that you're operating under.

Another very important point from the patent showing that a 0.2 uf capacitor could never charge a battery if merely filled and dumped one time, but if the induction coil along with the oscillatory multiplication of the spark gap gives us hundreds, thousands or millions of pulses per second then we can actually charge up such batteries and produce a lot more power. This shows that we are not seeking to push current through the entire system as then you would just have your losses."Obviously, if such electric power instead of being stored by said condenser had been simply rectified, and directly applied to the charge of one of the above mentioned batteries, such power would only produce a very small effect on these accumulators, and the whole discharge of the other battery would never cause the complete charge of the second group.

On the contrary, if same said power is stored by said condenser 48, and this condenser is properly connected to an oscillatory circuit in which one of said batteries can be joined, and furthermore if by means of a rectifier the high frequency currents produced in such oscillatory circuit are forced to pass from the positive to the negative pole through said battery of acuumulators, it is obvious to state that it is always possible to secure by these means, the number of amperes required by said accumulators in order to get them charged in a given time."

But he talks about a .2 microfarads.

So we don't want a big capacitor there, because what we want is.

the fast charging of that capacitor as possible.

and the thing is about that is... Well...

You want a little bit of airflow to blow out the spark gap.

And that cuts it off more rapidly so that there's more rapid frequency.

So then what happens is...

We also have make the quenching It's also shortened, I guess much greater efficiency.

and you're not wasting so much energy in creating a spark, actually, we're suppressing the spark.

So what Benitez talks about the capacitor is that we wanted as fast as many as high of a frequency we can get there.

Therefore, we're charging up and discharging that capacitor.

This is much possible and rather than pushing current.

Pushing fardas, microfarads into the battery were we're hitting that battery with very small pulses.

Up to, you know, a million times a second, which is extremely fast.

And you can only get that kind of speed with the right kind of system?

Like this is very limited here with this hammer, based upon the...

Flexibility of the...

The malleable aluminum there.

So if we get into other electrolytic type of...

Interrupters we talked about, then we can go faster, he says.
Right here, I'm just showing the bare bones basic.

And I'll do a demonstration of that, a little bit later on of that particular system.

But I want to make mention the difference between this particular.

Well, this end of the circuit with its capacitor would be different than.

On the second system where we have.The spark in and that particular system.

What else I want to say?

Let me try to convey the idea of...

Where the energy takes place, where the increase takes place, and.

There's a lot of talk about.

It's in the special caduceus type coil.

It's in this place or that place.

But I think it's in several different things that we're doing here.

And.

In the first case, we have an induction coil.

We have.

A making break.

So as soon as you... When you make...

When you make the contact you obviously have a closing of the loop through the primary in which...

it draws energy.

And that's a closed loop.

And at that point it obviously energizes the...

The soft iron and it opens up the circuit.

At that point we'll see the...

it turns off.

Right obviously it's open there's no current flowing through the...

From the input.

And then, of course, if we run the capacitor.

On this side of the circuit.

So I have it here.

After the circuit.

Then.

What we have here is a real open loop and we're not across the context.

And I mean, it is an open loop anyway with the capacitor.

But, not even with the capacitor there, you have a real open loop.

At that point we go into, an oscillation which we can see on both coils here.

On the oscilloscope.

So that would be, I'll gonna show that while we're talking again.

Now you saw, how when I first picked this up, there was a dead short, right?

Because I had to kind of kick start it, to get vibrating in that way.

This is an old model is not working very well.

So now all you can see is.

The waveform while we connect.

Here is disconnected the capacitor

so if we connect it again across.

Where it's usually connected which you do right here.

Of course, this is a really big capacitor so you don't really want to do that.

Lets see now we can go.

Unfortunately this kind of... Is really sensitive so...

So this would be across.

Across the terminals.

Now I just saw it a kind of like like more.

But she was drawing more power when we did that.

So called, because actually you've got the capacitor right here.

Anyway, I'm going to show the difference that's across.

That is across the coil, see the waveform change there and then damped it all out.

There's open again.

So you can see the lights too as the... Well not too much energy.
We need look at the voltages.

Change under the various... Wave now.
What we can do is connect it in several places.

So we can disconnect this.

Can't let that go for too long in multiple changes.

So 12 flat voltage come now... It's just crashed.

So now if we connect up again.

Let me turn it on this

At this position I am here will change everything somewhat.

So let's connect this across...

So now we have it directly...

That's interesting.

So you can see there.

That's right across the one set.
The primary coil actually.

See on, the busted wave out there across
what we are draining or...

So there's a number of places where we can see enhancements.

Now we're at...

100V were...

On the input side.

Well, I guess we got out of sight on the on the, stunt side, and only actually.

Sorry, that's the other way around.

We're only at five volt intervals on the one on this.

Number one channel to the yellow channel and the blue is across.

So we I guess you can call that the output.

And those are 100 volt positions there.

So we've got one, two, three, 350 or so.

Well.

Differences there or, spike up and down.

So you can see that and look at.

That's across the.

And then.

And so we could run both of these.

Oops.

This is not meant to give you that much precision.

It's to go over the whole thing.

So now if I put this capacitor on and the difference there, you have this one connection.

So there's a lot of different relationships here, with what we could do.

I also have this slider, that isolates the I think it's just the core.

Yeah.

Just isolating the core material from the, the windings.

So that will change the relationship.

So we that, you know, I changed everything.

So we're talking about running some different loads here because we're talking about milliamps here.

50 milliamps.

12V.

Difference in differential.

Pretty much exactly.

And.

So the battery charging up at the rate this one is charging for batteries altogether swapping around.

So this is like my motor situation, except you don't have the support we have.

Running of the speaker mode.

And which is analogous to a so this could be any that you size.

So I think really we can avoid the for battery draining system like this.

This is a simple way of doing it.

It's a lot easier this way, but I think we can reduce the number of batteries to go with the final, pattern in which we're running, two batteries doing the same sort of thing.

But now we're using a spark.

Yeah.

And of course, this particular system, too.

We can't run across here.

We can run the.

The extra transformer.

You know these things.

That almost nine.

You know, I have to share that change a little bit.

Anyway, what I'm saying is, so we can actually open this up a little bit more.

You can look at the way for you.

So again, it's.

So the difference.

That's disconnected.

Connected.

We got certainly a lot more power when we add this capacitor in there.

Just like you said.

There's a significant increase in power.

And, like I said, we can also do.

See the difference is Athens is right down.

I put it across there.

Now you can only take this one off.

Now it's just across.

Well, actually, I'm across the country.

Now flat and said.

So where does the access take place?

Whereas the game take place here.

Like I said.

You have.

You have to make a break contact.

So you have energy coming from.

This battery day until it opens up.

Then you have a ring and that, continues to.

Produce action in the coil on both sides of the ring.

As you can see right here.

So you want us?

So there's a ringing room while.

It's pretty good and actually just larger there from that.

And of course, the wheel turned on again.

For a while.

It's a pretty big.

Offside there.

So that's where your gain is.

That you keep charging up this calf several times and it produces more output that way.

So and I mean there's this is a simple way of describing it all.

I can't get into all the complexities of it, of that format.

But what I'm trying to say is you have to have an open loop.

Of course, like we said.

So you have their off time and then when you offset, the physical world, let's say that it wants to balance itself out.

So once you reach equilibrium so then it comes back.

It's like the last band.

You know, this is where we see it in the wave and there's more game.

So that's the only way you can explain it.

There's nothing else happening here that, really can explain this whole thing.

And so really, all these different inventions are just a way of exploring these basic principles of an open loop system.

The imbalance in the environment and what the energy is, where it's coming from.

These are all things that, some people think they know.

This is true.

And I think it's probably a lot more complicated.

And centuries from now, we'll realize how little we do right now.

But we can do this.

The thing about this is we want to make it safe, and we don't want to run these kinds of systems at higher voltages.

Like, this is only a couple of hundred volts here.

So we're not producing anything, any kind of serious, radiation or anything, but it still is producing a radiation.

We wanna to be careful to enclose it.

Now, I have a couple of things that I'm going to do to close these systems before I start selling them.

And, after that.

That's very important, nobody else has offered yet.

So I think it's very important for our safety that we do that.

So there's what we have right now and, anything else I will add to this video and text form or whatever.

And, I hope you enjoy it thanks you.