What Maxwell Actually Wrote Has Been Hidden Since 1884

Is our reality really as we perceive it, or can we or is it you know, when you say it can a plane teleport? You know, that really makes you question the nature of our reality. And this is what Tom Bearden's getting at. Is that nature of our reality is not as cozy as we have been trying to make it seem. >> All other people first start off thinking that they become materialist. They think everything material is real and that's it and that's all of what reality.

A lot of them are willing to kill you under certain dogmatic systems to enforce that belief. >> See, that's what it's all about right there. What I see is real, what I can touch is real. And they want to enforce that belief. But that's not our reality, chat. Quantum entanglement shows you that's not our reality. If quantum entanglement didn't exist, then maybe I would say yes, what you see is what you get and that's all there is to it.

This is why this is the difference between the low IQ academics who think they're smart and the people that are really the high IQ people that understand physics and zero-point energy. >> And nothing could be further from the truth. That is a first-order truth, but it is not ultimate truth. This thing is real, but it's not ultimately the only reality. If you go down into the nucleus now and you really hit the nucleus, if the nucleus moves, everything goes bananas. And the stable order that you observe around you goes right out the window.

And when you go in with the scalar waves, that's the kind of reality you're looking at. Okay, let's talk about the flow of time because we're going to tamper with that, too. >> There we go. He's saying there's a direct connection where we can tamper with fundamental physics. We can tamper with the When we're talking about the power of the atom, you're really talking about the fundamental forces. Strong force, weak force, nuclear force. You're you're talking about Strong force is nuclear force, but you're talking about the fundamental forces.

And he said gravity waves can go right through the electron shell and impact the nucleus. If that's the case, what happens if I stress the medium right at the nucleus? This is where Sal's saying you can do fusion easily. Gravity unlocks fusion. If you can make gravity happen, fusion becomes trivial. You make a gravitational well right here where my finger is, and everything naturally wants to come towards it.

That right there is lowering the Coulomb barrier. But effectively lowering the Coulomb barrier, even if it's not directly changing it. At the end of the day, how it's described, like am I actually going in there and changing the atom structure? Or is it just an an effect, a visual effect? Doesn't matter. If it works, it works.

Rationalize it how you want. Is it real? Is it not real? I don't know. We live in a simulation. Hard to say what's real. >> I told you this part gets a little complicated, but I'm going to try to show you before you get out of here how to think about a time reversed wave, and how to use it, and how to make it work for you, and do magic.

Now, a photon comes in and interacts with a negative charge, and that and then the charge goes into excited state going around the atom and then drops back and decays and emits a photon. >> Okay. This is getting real spicy. We're going to end it after this, but he's saying now you've got your atom. You shoot it with a laser beam, photon. It excites the atom. The electron puffs up.

And then the electron goes back and it releases a photon. Emission and absorption. That's what this is. Absorption of the photon and then emission of the photon. So, the atom's actually acting like a little medium. >> That process, a photon absorption and emission re-emission from the excited state of a negative charge in an atom is what we call the positive flow of time. Now let's be >> Wow.

That's what we call time. What we call time is absorption and emission of energy from atoms. Whoa. >> Here it was here. We're saying that the flow of time in this universe occurs bit by bit at a fantastically high rate. One linear piece at a time. The delta T is not always the same size. It is discrete, but it is not the same size.

So watch your words. You got to think very carefully. Chronons do not exist. Not as being one simple value. It's discrete, but it's quite variable as we'll find later. If that same photon interacts with a positive charge, we already know in physics that if you invert the charge, you invert time. That may sup- >> Whoa.

Am I crazy here? Is he basically saying that inverting charge is equivalent to inverting polarity in gravity? Seems like he is. It So this would imply, if you're not understanding, this would imply that it really is as simple as a negative well over here and a positive well over here. When the plane teleports, the negative potential goes here and it emits the plane over here. Spontaneous emission.

They're saying, "Oh, absorb absorb the photon. Now release the photon." Just like that. Just normal physics like that. >> Yes. >> Surprise you, but it's well known in physics. That is not Tom Bearden. And so it gives you a little piece of negative time.

Hey, wait a minute. We got a problem here. They use a theorem in particle physics. They found out that charge is not conserved, broken symmetry. Parity is not conserved. Time itself is not conserved, but it seems that the three, the product of the three, all three, cannot be violated one time.

That's the best shot we got at it today in particle physics. That's where they're at. But, you can violate any too. Go on. Let me say that again. You don't have to conserve charge.

The contrary argument is, but it's a little white thing. You say, yeah, baby, it's a little white crow, but maybe he'll grow. If I can have little white crows, then I can collect them and grow them, I'll have big white crows and they'll make a world. >> I mean, saying you don't have to conserve charge would imply that you can get infinite energy, right? >> So, charge, parity, time, if you inverse the thing, you might get something different.

As a matter of fact, the anti-photon, which has been assumed to be the same as a photon, that is a false assumption in physics, and I'll show you that in just a moment. >> Yeah, or maybe time's not conserved. Hmm. >> Well, we've already said we go into the nucleus with scalar waves, and we'll have a higher order reality when we do that. Why? First place, we're interacting with a neg- a positive charge. The nucleus of an atom is already time inverted. Did they forget to tell you that in your electrical class?

Yeah, because they didn't know that. But, it's true, and modern physics substantiates it. And we're going to find out that's why we're going to get time reversed waves a little later on, that we can use to do all sorts of magic things. >> [clears throat] >> At this point, then, if you go into the nucleus, although I show here on this diagram little balls all clustered together, modern physics tells us that's not the way the nucleus is built at all. It's a vast boiling smear. There's not a proton, there's not a neutron all that mess in it at all.

If you go in there and you catch one and you gradually catch all the wiggling fish and bring them out, that's what you'll find on the average after you stop the fish. But, before you stop them, they're waves. They are not particles. They're all mixed up as a big mess. So, you can't separate them. It's a boiling mess.

In fact, it's a trapped local potential. Which means it's gravitational. That's what mass is. >> This seems like this would be the precursor to the spin two transition control. Is that once you realize that we can control the state of the atoms, you wonder, oh, can I control these states to create gravity? >> That's modern physics, not Tom Bearden. But now, if I can go in and have a wave absorbed directly in that the scalar wave, I just either increase or I can decrease depending on how I balance that potential wave that I send in there.

And I can raise that potential lower it at will. As a matter of fact, if I keep radiating it and it's all in there, it'll keep building up. It charges up just like a capacitor. Only now it'll charge either positive or negative. And I'm giving you laboratory results. >> BOOM! He just told us how the orbs work.

How do they charge it up? He's just saying right here. He's saying I shoot the scalar wave right into the middle of my atoms, right where I want the fusion to happen, and this will charge it up. Charge up the negative potential. Charge up the negative potential. We get that bad boy to charge up, spin it around the plane.

Once it reads full charge, full hearts, full charge, chat. Full hearts, full charge, pew, pew, boom, negative potential go bye-bye. Reappear over here. And this is definitely how you would impact the Coulomb barrier, too. Right there. Let's go back like 30 seconds.

This is the last part I want to listen to. >> decrease depending on how I balance that potential wave that I send in there. And I can raise that potential lower it at will. As a matter of fact, if I keep radiating it and it's all in there, it'll keep building up. It charges up just like a capacitor. Only now it'll charge either positive or negative. And I'm giving you laboratory results.

It acts as a capacitance for scalar waves. Now, when something else comes in and >> Acts as a compa- capacitance for scalar waves. Building up those scalar waves until snap. You break through space-time. Wow.