English transcript

Walter Russell's periodic table that he put together. Now you compare that to

Mendeleev's periodic table,

you'll compare Walter Russell's to it and you'll see something completely different.

It's unwinding.

You'll see Hydrogen sitting all the way over there by itself,

but they don't show that Hydrogen has the same tone as as Carbon.

Same tone, same key of E. 40.5 Hertz,

the next one would be like 81 Hertz. You go to Silicon,

it will double up and would be 162 Hertz. You go to Cobalt and it'll be 324 Hertz.

It's in that base,

if you were to take the angles of incidence

or the tones that they create,

you know, their color.

Like you can turn color back into sound. It's the same wavelength,

it's just twice as long, or much longer.

So all you have to do is keep dividing light by two and you'll ultimately

get back to

the audible sound of it because there was a relationship between light and color,

sound and tone, matter and shape.

Walter Russell's periodic table that he put together. Now you compare that to

Mendeleev's periodic table,

you'll compare Walter Russell's to it and you'll see something completely different.

It's unwinding.

You'll see there's a relationship

between Hydrogen, Carbon, Silicon, Cobalt, Rhodium,

they're all bonded,

they're all sit be- as the middle point between two noble gases.

So those things don't really exist, it's only one substance. Now the problem is,

the first thing that we're able to perceive

is Hydrogen.

That's the first visible element because before it is two dits

for us to perceive it. But as you reach into the next octave, the Carbon octave,

and they call that a bisexual tone because the Carbon has

two tones to it,

it has a negative side and a positive side. Part where Lithium behaves...

Lithium is contractive. Beryllium is contractive. Boron is contractive,

but the moment you get to Carbon, you balance it out.

It gets to a perfect balance of plus and minus four. So it's a double tone.

Nitrogen is minus 3-1, Oxygen is minus 2, Fluorine is minus 1.

Now the balance of this, all of those are mates.

Fluorine and Lithium naturally mate.

If you have Lithium bonded with any other element, the moment that Fluorine is

introduced, it will break all bonds violently so it can bond with Fluorine.

Same thing with Beryllium and Oxygen.

That's why it's... And what they've tried to keep from us, if you have...

you want to break water into its component parts of Hydrogen and Oxygen,

all you have to do is introduce Beryllium. Or the sound of Beryllium.

Oxygen will violently break away from any other thing, even Hydrogen, to bond with

that Beryllium.