The Ion Pumpy Thing Was Solved in 1958, Nobody Told You

A second experiment at Berkeley is the tubular pinch, which is a dynamic pinch having unusual geometry. >> Tubular pinch. >> 24-in machine, a plasma is compressed dynamically into a hollow cylindrical shape that provides much greater stability than exists in a simple dynamic pinch. The geometry of the tubular pinch is shown in this isometric view of the cylindrical device. Deuterium gas is distributed throughout the volume bounded by the end electrodes and insulating walls, beyond which is the metal shell. >> This is actually super similar to what George Miley was proposing. So, what George Miley was proposing, concentric circles just like this.

And the idea is the one in the middle, only certain particles can get into the one in the middle. And then it acts as a reflector mirror, bouncing the particles back in. >> When voltage is applied to an end electrode, a discharge is formed in the gas. Current flows through the plasma to the opposite electrode and returns via the metal walls. >> Yeah, okay. >> The magnetic field associated with the current pinches a plasma sheet away from the wall. The plasma is compressed tightly and then bounces back. The resultant oscillations heat the plasma. >> Interesting. So, what's a huge is that it's like self-heating.

These things are self-heating. You can see how it could easily become self-heating. If this thing can heat the plasma, produce fusion, get energy out, and then use that energy to feed back the heating process, now if you add zero-point energy and it can suck energy from the vacuum, you're just going to get over unity so easily. And this is the situation. This is why they hid it. Why would you hide fusion?

Why hide this amazing breakthrough? It's not just weaponization cuz they found something about physics when they did this. When they did this, they found out we're getting not just fusion here, but we're actually tapping into zero-point energy. We're tapping into space-time with this. >> The major effort at UCRL has been the development of the magnetic mirror machine of RF Post. >> Magnetic mirror machine, chat. >> Magnetic mirrors are used to reduce end losses in a straight tube device. When ionized gas is confined within a magnetic field by means of its longitudinal field lines, the ions move in helices enclosing the magnetic lines of force.

Indeed, an ion acts much as though it were attached to a line of force about which it circles. But it can, if not controlled, move freely along the lines of force. So, the end losses become overwhelming where the magnetic strength is greatest, forming so-called mirrors. The ions moving toward a mirror tend to be reflected from the magnetic mirrors into the center of the field. >> Am I like magnetic mirrors are not being used in tokamaks, right? I can't believe I'm watching them explain magnetic mirrors in 1958.

Helion fusion, I've got a clip of Helion fusion engineers talking about the magnetic mirror setup, and I just thought it was something that must be much more recent. But it goes all the way back to the 1950s they were doing magnetic mirrors. And yet, the most common form of fusion doesn't even use it. The most common form of fusion, tokamaks, don't even use the magnetic mirror setup. What the hell? So, what I'm here to say is this didn't fail.

It just went black. This just went dark. This is what it looks like when something goes dark. It This didn't fail. This was too successful. I mean, they're explain to you exactly how the physics works.

It works. And they just found out they could actually contain the fusion and make the fusion stable. And they were like, "Oh, okay, we're going to stop doing mirror research." >> Once the plasma is trapped, it can be compressed and heated by increasing the magnetic field. Theoretical studies >> All that we have to do is increase the magnetic field and we can compress and heat the plasma once we've got it stuck in our magnetic field. And and who can speak to increasing the magnetic field strength? Oh, Salvatore Pais.

Salvatore Pais equations 7, 8, and 9 Are you guys ready for this? Salvatore Pais's equation 7, 8, and 9 are the same thing as the Navier-Stokes equation. The Navier-Stokes They said the AI says that given some force a plasma will explode to infinity on its own. And Salvatore Pais says that we can explode the electron the magnetic field strength to infinity. Exponentially explode it to infinity. And if you ask the AI, the AI will say, "Well, Salvatore Pais was saying under an idealized situation with no friction or whatever, no outside forces and variables."

But the AI just came back and said, "Yes, that this happens." The AI just came back and confirmed the Navier-Stokes. It does explode to infinity. If magnetic field strength can explode to infinity, fusion becomes trivial. Completely trivial. Do you get what I'm saying here?

We can do this. And we can do this not just with deuterium-tritium. We can do this with boron-proton 11. >> bodies have shown that at a sufficiently high temperature, the leakage through these mirrors, occurring as a result of collisions between the particles, can be slow enough to permit very effective confinement of the plasma. The mirror machine geometry is therefore being used to study the confinement of plasma, as well as the heating of plasma by high compression. This is illustrated in one of the experiments called tabletop.

In machines of this type, an evacuated chamber is surrounded by magnetic field coils, which produce first a very weak steady magnetic field, and subsequently, a strong pulsed magnetic field. At the start, a plasma gun injects a plasma burst into the center of the confinement zone. >> Is so crazy. We're basically watching a how-to video about how to make plasma orbs from 68 years ago. And you be like, "Oh, how could how could the plasma orbs exist back in the '70s?" Uh, I don't know. I'm watching a freaking video about it in the '58 1958.

So, it goes pretty damn far back. I don't know about the '20s, but we're good with the '50s. The hell? >> Now, the high voltage is switched on. The strong magnetic field rises within a few hundred microseconds to its maximum value. Next, the coil is short-circuited. Current continues in the coil for many milliseconds.

Proof of the compression heating and stable confinement of the plasma is given by the concentrated glow of light produced by slowly escaping electrons, recorded on the fluorescent screen placed just outside the confinement zone. The plasma is concentrated into a central spindle, which is apparently stable. Observations and measurements also show that the ionization light passes quickly, and that a hot ionized plasma remains present. One observes continued escape of energetic radiation such as x-rays and strong microwave signals, indicative again of high temperature. >> X-rays, guys. This is the big rub when it comes to the MH370 videos.

Are the x-rays coming out of the orbs because of a fusion reaction or is that because of a magnetic reconnection event that's happening inside the orb? It could be either or both potentially. >> Measurement on the plasma indicates that its density and energy content are substantial. >> My favorite is this I when I was watching this I'm like they decide they did some measurements of the energy. They decided the energy that they're producing from these plasmoids is very substantial. Did they say how much energy is producing? Any estimates over there? >> [laughter] >> Was it producing over unity?

Was it producing excess energy that they couldn't account for? That's all I can think about when I'm thinking about some some government DOE guys doing this research. Some some random desk jockey writing down the numbers going wait a minute. This doesn't look right. >> And it is observed that it does not become unstable and that confinement is achieved for many milliseconds. >> This is also it does not become unstable and confinement was achieved for many milliseconds. The very first time they're doing this, they're already getting abnormal stabilization.

They're already getting and we know why because there's an extra dimension of the ether and that explains the stabilization of the planets, the galaxies, etc. So of course they're seeing much higher stabilization and this is also what David Curley said about field reverse configuration. The stability was much much much higher than they expected, thousands of times higher. You don't think they could turn this into something that's like stable stable? Mhm. >> Another study is called Toyop. In this device, the mirror machine geometry shows itself able to compress the plasma in multiple stages to a much higher compression than in a single stage.

And after each compression, to transfer the plasma to an adjoining section of the tube. By means of microwave measurements, the course of the plasma is followed down the machine. To date, at all phases, it has been found stable. >> The What? Look at what you're about to watch right now. You tell me, I want somebody to look at me with a straight face and tell me they didn't solve fusion. They're about to have perfect control over the plasma and make it get smaller and smaller and smaller and shrink it into a smaller size to to make sure that it's actually causing a fusion reaction.

They can control the pressure and stability of it. That's what this experiment's about to show you, right here. I need a martini, chat. >> The plasma is injected in a burst at the right-hand section of the tube, which is at this point 18 in in diameter. Plasma is compressed radially. By means of a moving mirror, the ionized gas held steady by the applied magnetic field is pushed into the 9-in middle section of the tube. The moving mirror effect is created by pulsing a series of coils in succession.

In the middle tube section, half the diameter of the first, the compression process is repeated. >> Here it is. >> After the plasma is compressed, this time to 1/3 its diameter, it is magnetically transferred into the third section, which has a diameter of but 3 in. >> Look at this. Come on. >> third section, the final compression takes place. Here it is held and compressed by rapidly rising intense magnetic mirror fields, which reach values of 100,000 G or more. >> 100,000 G or more. Or more. What is 100,000 G or more in Tesla? That's 10 Tesla.

Wait, what happened to my chat? 100,000 G is only 10 Tesla. Don't worry, they're going to get a lot higher than that, chat. A lot higher than that. >> At the end of the compression cycle, strong fluxes of x-rays and escaping energetic particles are observed. Proof of the heat level to which the plasma has been raised. And in the transfer process, a bonus has developed.

In rapidly moving the plasma from one section to the other, the energetic particles only have responded. The slower impurities have been left behind. >> Wow. You've never seen a video like this, guaranteed. Like this right here. Guaranteed. And they say as they compress this down, the impurities that they were struggling with, they get left behind.

So once you turn on your plasma ball, you would say, "Well, you're turning the plasma ball in normal air, you're going to have a whole bunch of impurities." When you first turn it on, yes, there'll be a neutron release. There's going to be a neutron release when you first turn it on because random shit's going to fuse together, all the impurities are going to fuse together, blah blah blah. But after it's been running, then if it's proton-boron 11, then it should be basically a neutronic. So now I'm wondering, the second orb appears to come from the water. Maybe it just materializes.

Maybe these orbs are like a tiny device or nothing at all, and they can just materialize them for short periods of time with laser beams, with beams, with directed energy weapons, or something like that. Doesn't really matter, but it's interesting to think about. But the point being, why is this so important right here? This shows they have studied and figured out how to stabilize various sizes of plasma to match the stability they need. And that's what these plasma balls are all about. Why are they various sizes?

Cuz they're going to be a various size to match the stability requirement for whatever they're trying to do. And that's what this research shows that they figured out. I mean, that's what this is all about right here. >> There is a third major experiment in the post series called Felix. This experiment is concerned with an entirely different method of creating a hot plasma. >> Okay. >> Beams of high energy ions and accompanying electrons are injected into the confining zone and trapped and held there by increasing the magnetic field in time. >> Uh This is Tri Alpha Energy's thing.

What this is the neutral beam injector but without the neutral beams, without with the inserting the charged particles. What I mean, I'm just going to tell you what ends up happening here cuz I'm a fusion expert. The reason why they can't do it this way that he's explaining right here is that if you try to insert a charged particle into a magnetic field, it repels it. So, what Tri Alpha Energy did is they injected neutral particles. The particles get ionized after they get through the magnetic field.

After you get through the barrier, then it becomes ionized, then it gets trapped. >> It is necessary to conduct the experiments under unusually high vacuum conditions. The chamber has been evacuated to a pressure of approximately 10 to the minus ninth millimeters of mercury. 1 millionth of 1 millionth of an atmosphere. For the Felix program, compact high ion sources were developed to be used in the experiments. No longer >> Dude, what is that? This looks identical to the weird ion pumpy thing.

And on the ion pumpy thing, where is it? Important looking at this right now. Ion seed gas. See this thing over here at the bottom says ion seed gas right there. Ion seed gas looks identical to this thing we're looking at right now. It even says small amount of ions are replenished every 10 to 20 hours.

Says it right there in the bottom left of this. Wire fed wired feed metal ions. Dude, this this is just some of the advancement of the thing we're looking at right here. These Look at this right here. This is where they're synchronizing up the particles. So essentially do fusion and then they push the particles from the fusion reaction into this zone and they create a conditioned electromagnetic beam.

They create a gravity beam basically from this. Psychopathic chat. Psychopathic, but apparently humans made it. Anyway. Let's go back. I mean, there it is right there.

Boom. Look at that. Okay. >> Larger than a man's hand, each source can emit more than 100 milliamperes of high energy deuterons. >> So this is the thing that's feeding the energy, the ions into the into the machine. Ion seed for the seed gas. Wow. >> The shear is produced by additional helical conductors directly beneath the usual windings. The stabilizing windings also produce a rotational transform, so if they are installed, the figure eight twist is no longer needed. >> So they put in a helical winding.

Has to be helical. They put in a helical winding and now actually you don't even need the twist anymore because it actually solves that instability as well. Okay, why the hell are we doing stellarators at all then? The point being here we need our plasma balls to be perfectly stable. I think the helical twist that they're putting in here that's the ion pumpy thing when you look at the magnetic fields alternating. That's what they're doing there to control the particles and get them to line up perfectly as they want.

That's what they do. They force them into synchronization into the frequency and pattern they want. This is definitely alternating magnetic fields to cause them to synchronize up. This is probably the most important part of the ion pumpy thing right here. This is where they're doing the conditioned electromagnetic beam. This is where they're turning these charged particles into a gravity beam or producing the gravitational effects right there.

That's the spice. That's the sauce. And it ties back to this part of the video that we're watching right now. Okay. >> In summary then, a stellarator includes the following parts: a confining magnetic field with a stabilizing magnetic field which also produces a rotational transform, an ohmic heating transformer, a magnetic pumping apparatus, and a divertor. This equipment has been installed and operated on various machines in the experimental series. >> Dead. Ion pumpy thing.

There's only like three components to this. Maybe four. Look at this. Something to charge it up. We just need some kind of undulator concept to give everything in sync. We need something to pull in the plasma, and we need some kind of pump to stabilize it.

And then we're going to have a bypass system to make sure that the stuff we want goes to the area we want, the reaction chamber, and everything else doesn't.