Afrikaans
Akan
Albanian
Amharic
Arabic
Armenian
Azerbaijani
Basque
Belarusian
Bemba
Bengali
Bihari
Bosnian
Breton
Bulgarian
Cambodian
Catalan
Cebuano
Cherokee
Chichewa
Chinese (Simplified)
Chinese (Traditional)
Corsican
Croatian
Czech
Danish
Dutch
English
Esperanto
Estonian
Ewe
Faroese
Filipino
Finnish
French
Frisian
Ga
Galician
Georgian
German
Greek
Guarani
Gujarati
Haitian Creole
Hausa
Hawaiian
Hebrew
Hindi
Hmong
Hungarian
Icelandic
Igbo
Indonesian
Interlingua
Irish
Italian
Japanese
Javanese
Kannada
Kazakh
Kinyarwanda
Kirundi
Kongo
Korean
Krio (Sierra Leone)
Kurdish
Kurdish (Soranî)
Kyrgyz
Laothian
Latin
Latvian
Lingala
Lithuanian
Lozi
Luganda
Luo
Luxembourgish
Macedonian
Malagasy
Malay
Malayalam
Maltese
Maori
Marathi
Mauritian Creole
Moldavian
Mongolian
Myanmar (Burmese)
Montenegrin
Nepali
Nigerian Pidgin
Northern Sotho
Norwegian
Norwegian (Nynorsk)
Occitan
Oriya
Oromo
Pashto
Persian
Polish
Portuguese (Brazil)
Portuguese (Portugal)
Punjabi
Quechua
Romanian
Romansh
Runyakitara
Russian
Samoan
Scots Gaelic
Serbian
Serbo-Croatian
Sesotho
Setswana
Seychellois Creole
Shona
Sindhi
Sinhalese
Slovak
Slovenian
Somali
Spanish (Latin American)
Sundanese
Swahili
Swedish
Tajik
Tamil
Tatar
Telugu
Thai
Tigrinya
Tonga
Tshiluba
Tumbuka
Turkish
Turkmen
Twi
Uighur
Ukrainian
Urdu
Uzbek
Vietnamese
Welsh
Wolof
Xhosa
Yiddish
Yoruba
Zulu
Was short but...
*Suddenly everything becomes clear.
Yeah, Because once this light bulb turns on, you'll never forget this light bulb.
You'll walk around saying, you know what?
I've seen some bullshit in my life, but this takes the cake.
Because this is actually simplicity.
This is like, say I have two trees. Do it yourself.
Do the measurements yourself, I have two trees.
One tree here, one tree here, one's a small tree and one's a big tree.
What's the potential difference between the two trees?
Well, if you stick a meter in there, you're going to find out.
It's annoying.
Nature is full of these potential differences and they're nonlinear.
So guess what?
You can't have linear amount, right.
You have non linear amount.
This is nonlinear.
That isn't a linear signal.
What comes out of all this is a nonlinear zero.
*That explains it really well.
Yeah. You need a nonlinear map.
You do, you're not gonna get it.
You gonna used to sit down in the chair and get the man out...
He's a mad man?
But he showed me how to make this little motor that's operating and it's charging this battery.
Now I want to know why. I want to know why.
Because it goes against all contrary laws.
You can't have a twelve volt battery charge a twelve volt battery.
You can divide the charge between them.
You can suck them both dry,
but you can't have one that's lower than the twelve volt battery charging a twelve volt battery.
*In other words, to say it's probably best to say that in terms of whenever you talk about a conventional circuit, we talk about the current flow.
*We use that, we measure that. It's something we could quantify.
*But in essence, current is just so, the sort of back reaction to your di pole is disappearing.
The dipole is destroyed by the current.
As long as you don't touch that, this dipole stay.
So if everyone touch it you want to touch this, right?
And you just go. The current didn't have any time to get that.
See, this is probably drawing a lot more current than can be measured,
except it's so fast, it's instantaneous.
We can't destroy the di pole that quickly.
The idea is to make the di pole last as long as you could last and get the most work out of it.
*So I guess in a way you could say this, in all this substructure, there's a hidden way to look at information and voltage flow.
*But in terms of when you get rid of the currents, that's what you're left with, and you don't want to use the current because that's destroying everything trying to get out of it.
Yeah, and you see, if the meter sees a zero, you can't measure the current.
Therefore, how does the battery charge if you're not measuring the real current?
*So you could think of a current is kind of, you know, everywhere in h, you see that whenever you impose some kind of change or differential, it always tries to balance itself out and make itself.
*And in this way, it seems like current is what happens to do that.
*So if you're interested in,
well, the current slows down.
What controls everything is the magnetic field.
So the bigger the magnetic field, the slower the radiant.
It's like a pressure valve for the radiant. Okay.
You follow me?
That electromagnetic field, the normal field
is just a regulator to keep everything from going ¡pop!
You see, in our experiments with the radiant transformance,
if you lay out the wire on the ground,
Say you took this motor wire,
You laid it out on the ground, it wants to oscillate at some unnatural frequency.
And there's nothing to slow itdown, so the device can't go that fast.
So what do you do?
You take the wire, and you start to coil it up, and coil it up and coil it up.
And pretty soon, the frequency slows down.
Because the magnetic field is collapsing inward, slowing the frequency down.
*Right.
So now, with that frequency, only a few of these radiant sparks are able to get through, but that's enough.
So if you come up with some device that can go that fast.
You could just have a straight wire in front of you.
And it would output everything that's in the "Heaviside" field.
*Is that similar to what a "Litz wire" does in a way?
No. "Litz wire" contains the magnetic field in itself.
So what you want to do is when you use these, right?
Is we're talking about this one straight wire.
And we're talking about this flashlight battery at this end.
So if we cause a pulse on this one straight wire.
And we had a device that was fast enough.
To switch that fast.
You could capture everything around that wire.
Because the frequency would be so high.
It be off the scale when in voltage.
That's what we're talking about.
We just found a way to slow it down through a magnetic trigger.
All right.
And by coiling up our transformers and stuff in these coils, we're just slowing it down.
We're more than satisfied to get 60 pulses a minute of this stuff.
That's all we need for the battery.
*But potentially, there could be a huge amount of stuff you're not getting, different design you could use.
Oh yeah, I used to use stuffs like...
You didn't actually see it this afternoon.
But like when they took those golf cart batteries after recharging them.
Normally they could only run 1 hour, 100 amps.
All right.
These guys did two and a half hours today.
So where did that energy come from?
What what is in the battery that made it last two and a half hours at 100 amp.
You have to take whatever's in the battery.
That's a frosted piece of glass.
*Right.
And you have to clear it up, so it's like a clear window pane.
So in other words, there's no sulfation there.
There's no fog on the plate.
So once you have the full access to the battery, it isn't dying.
You follow me?
*And it just keeps that
it's getting bigger, it's getting better.
The flies bug me, "Tony"
did you get all that?
+ Some of it. Because it really helped when you pulled the mic off
*Eventually i was able to read, yeah I got it. Wait.
*That's good!
You got it all.
*There's a lot there.
*this is so far away from conventional stuff.
*Instead I'm going to pick a conventional book out and think "this is bollocks."
Now you understand where I've been for the last 30 years.
It started with "Bearden".
Talk about bizarre.
*Yeah.
Forget this bug.
Can't find what you're looking for?
Get subtitles in any language from opensubtitles.com, and translate them here.