Video Transcript
LPP Fusion. Now, if you were watching on Wednesday, you will see that we were watching a little bit of Eric Lerner's videos where he was in China explaining his newest their the their newest findings from their experiments. Um and they are building devices and getting closer to producing real working fusion reactors that can produce electrical energy on demand. Not really there, probably still several years out, but rapidly approaching. LPP Fusion, I'm surprised it wasn't subscribed. Hm. is one of my favorites because they do a Z-pinch configuration. So, this video here is what to help us understand how and why we see that orange slice, that heat signature in those orbs. The answer, as I told you before, is that the electrons are being heated up. Now, the reason why this is important is that when the electrons heat up with the ions staying at a low temperature, electrons hot, ions cold, you create a huge energy density. Huge energy density. Now, the energy density is what we're trying to achieve when we're trying to manipulate and warp space-time. We want a huge energy density. So, this is the reason why it's significant for producing these effects. Let's go ahead and watch this video. LPP Fusion, how focused fusion works. >> The core of our device is two concentric electrodes separated by an insulator. The outer one is called the cathode, it's the negative. The inner one is the anal, positive. There's an insulator in between. Energy from capacitors is dumped on these uh electrodes, which are inside a vacuum chamber that contains the fusion fuel. Current starts to flow from the cathode to the anode. What happens is a series of instabilities driven by the pinch effect, each one of which makes the plasma denser and hotter. >> Okay. Okay. Okay. Guys, ion pumpy thing for Ashton. What's the first thing he mentions here? He says, "Okay, we've got this vacuum chamber that has the fusion fuel in it. And in this, we have an anode and a cathode. We have a positive and we have a and a minus. We have a little battery boy. Little battery boy. And we have a capacitor connected to it so we can feed energy from the capacitor into this machiny boy here. We're going to feed this energy and it's going to ionize, it's going to increase the temperature of the electrons. And it's going to create these filaments here. This sounds already just like the ion pumpy thing for Ashton, the TM B spaceship that drew for me. Because in there, there's a region where you have an ionizer region, mean field ionizer, and in that region, you have the undulator, the back and forth electro or back and forth magnetic fields that would create like a spin type effect. And in there, you can see it feeding the ion gas, feeding the seed gas for the fusion. And you say, "Okay, Ashton, well how does this work?" Well, they're producing fusion inside this region, this vacuum region. The fusion produces electrical energy, electricity directly. That electricity feeds back to the capacitor, and the capacitor feeds back in to the pump, causing the process to repeat. As long as you're producing more electrical energy out of that process than what you are pumping into it, you have over unity. That's how That's how the flying fusion reactor works. Simple. Okay, so we've seen We've just been explained the high level. Pretty simple process. Now, let's see the details of this. Because how I imagine it is when you see these streamers here, filaments they call them. As you see these filaments collapsing down, it kind of looks like an umbrella. Doesn't it, chat? Looks a little bit like an umbrella. I imagine if I was looking at this from the side, it would look just like an umbrella signal heat signature. >> So, the first one, which is illustrated in this animation, is the filamentation instability. So, we start out with a smooth plasma, and the plasma comes together what are called filaments, which are dense vortices of current pulled together. So, that makes the plasma. That's the first step in making it hotter and denser. >> So, this, the filamentation, this part is the same as the ball guy I have here. OMG, there it is. Look. It's the same picture, chat. This is just a stock effect, you can tell. You can tell. The real deal right here. Look at those filaments. See all these little filament guys? This is actually the same effect. Lick it. That's a good idea. This is the same effect that you see in the Z-pinch. Why do all of these separate out into different filaments like this? Because they're both attracting and repelling at the same time. What we can learn from this is that they're right. This is how it's going to look. It's going to look like a spin wheel. Because you're going to have the plasma being both connect trying to put put together and separate. >> So, that makes the plasma. That's the first step in making it hotter and denser. Now, the friction of the electrons moving through the filaments start to heat the plasma up. Just like the electrons in a light bulb filament heat it up. >> Here's the secret right there. How simple is that? He goes, the plasma starts to heat up because the electrons are moving around. And this is the same reason of why the light bulb heats up. Because when you have your light bulb coming connected to your circuit, the electrons start bumping into it and it starts to heat it up and then the light bulb starts to light up here. So, we're going to have the same thing happen here. So, now you say, "Wait a minute. Wait, Ashton. Weren't we just looking at a plasma orb and there was a very clear heat signature in there?" You go, "What what is that heat signature?" And I go, "Well, what do you think it is?" It's got to be this. It's got to be the electrons moving around heating up the plasma in that very specific region. And you would say, "Well, why? Why in that specific region? There must be a a specific purpose." And you're about to learn. Yes, rest in peace, David Wilcox. >> The electromagnetic forces on these currents force them to move to the end of the anode. The anode is designed to be hollow. It has a hole in the middle. So, the current action >> Sorry to cut it off, but there he said it at the beginning. The electromagnetic currents force it to move to the end of the anode. So, this is where they're turning it on. They're switching the modes. They're turning on the electromagnetic current and suddenly, boom. You see the shape form immediately. Suddenly, you see it become an umbrella shape. They're turning it on. >> So, they fountains together inside the hole in the anode. And people, including us, have taken pictures to show exactly how this happens. Well, as that happens, a second instability develops. Because these filaments are all close to each other and moving in the same direction. So, they attract each other. And that produces what people call the pinch, even though this is sort of the second pinch effect. >> So, this What we're seeing is there's more than one pinch effect happening here. At first, you get the filaments. All the filaments all stream together, separated but also connected. And then, when they get to the anode, to the top point, they all come together. And when they come together, what happens? They're attracted. They come together, they're attracted together, and you get a pinch effect where all the beams squeeze together. That sounds like a pretty good spot for some fusion to occur, guys. I would say, based on what I've already learned right now, that our plasma orb we're looking at that fountain of electrons as they're funneling down into the central region, into the pinch region. That's what I think we're looking at. And the reason why it looks so stable is that they've created like a perfectly confined, stabilized ball plasma. That's why it looks like it's barely even moving at all. Cuz it's a machine pumping those electrons into that system. >> So, they're all drawn together and they merge into a single filament. The next thing that happens is that filament starts to twist up. It becomes coiled. And these coils start to attract each other. >> Chat. How It's a telephone cord. My guys, some of y'all are probably a little too young. You don't have enough boomer in you like I do. But there's enough boomer in me that I know what a telephone cord looks like, chat. And you always say, "Why is a telephone cord like this?" Because naturally cords want to coil. It's like a natural property of the universe and it's no different in plasma. Plasma it also wants to coil just like a telephone cord. And it The problem is what happens with these old telephone cords? Do you guys remember? Do you have your own telephone cord cord? You have it on the wall over there? It's always tangled up. It's always tangled up, jumbled up. There's always some weird knot in it and you're like, "How the heck did that not get in there? That is the next kink effect. That is the kink effect that occurs, the kink instability. You ready for it? Here you go. >> Cuz they're moving in the same direction. So, it becomes more and more coiled. It's called a kinking instability. >> Oh, chat, I didn't even know he was going to say that. I just happen to be a bit of an expert on fusion these days. Happen to know all the instabilities by heart. Sort of I You know, I know things, guys. I read I read I'm a well-read man. >> Eventually, just like a landline, if any of you still have landlines, it becomes twisted. It becomes twisted up in a little knot. >> See? He even mentions He even mentions the telephone thing, the landlines. Like it's actually exactly the same as real telephone cords. >> And >> But then, chat, the magic happens. Everybody wonders, what does plasmoid mean? Are you just making up words, Ashton? You just can't You can't just make up words like plasmoid. No, guys. After your telephone cord mixes up and hits its perfect optimal settings, out comes Ultra Instinct Goku. Came in, it was garbage, it was trash. He trained up and he came out Ultra Instinct. That's the same thing that happens with the plasma. Boom. >> That knot, which is illustrated in this animation, we call the plasmoid. >> Woo! Look at that beauty, guys. Look at that beauty. After it kinks around enough, it finds its own equilibrium and creates this little plasmoid guy. So, you have your own little kinks, you get your own little apple core boy. This is where all the fusion happens. This is where you can get temperatures hotter than the sun. And then, why? Well, you look at this, it's all plasma. There's nothing actually physically here. We're just using intelligent control of pinch mechanics. And we're letting nature fold on itself from this and create its own structure. >> Inside that plasmoid, temperatures can reach extremely high because the uh plasma has been compressed so much that its frictional force has heated up. >> Look at that temperature, guys. They're measuring KeV's. So, to keep it simple, the core of the sun is 1 KeV. The plasmoid hits 260 KeV's. 260 times hotter than the core of the sun. This is the secret to plasma. Are you really going to If you If any of you Not This is serious. If a single If I find a single one of you invest in Tokamak fusion, you are disowned. You are exiled from MH370X. You have clearly not learned anything from me if that's the case. I'm a failed teacher if that's the case. Why? Because just look at the math. Just look at Look at the numbers and go, "Why in the hell am I messing around with some crap that can barely get the 10 keV or 100 keV fusion? They're trying to do janky ass neutronic fusion using the jankiest fuels there is that produce a bunch of radiation." Meanwhile, my boy here, Eric Lerner, he's like, "Dude, we can do proton boron 11 fusion. It's the hardest fusion there is, but we can do it cuz we're hitting temperatures 260 times hotter than the sun." I swear, we used to believe in exceptionalism in America, and now we're just lazy as People that that invest in tokamaks are basically people that play Fortnite, chat. To honestly, this is a very valid comparison here. I need elaborate on this. The laziest people are basically Fortnite players, right? Give me my next slop skin. When's my next streamer going to have a skin in my game that I can consume and play all day long? That's the same people that are invest in tokamaks. Please, give me my next skin on my next next metal donut. Can Can we put some anime skins on that metal donut? I'll invest double. They don't look at math. They don't think about superior gameplay, chat. >> [sighs] >> Okay. Let's let this finish before I crash out. I'm trying I'm trying I'm trying to do better, guys. >> [music] >> Jesus. Jesus, who said this? Who said this? This is my kind of humor, chat. Dark humor. I'm pretty sure this dude murdered his girlfriend or something. No, no, no, no, it's even darker than that. I'm pretty sure he murdered his underage girlfriend, and everybody like knew he was dating underage girl that he murdered. It's pretty dark, guys. But, that's also very funny joke, so appreciate that. >> In addition, another possibility produces the acceleration of an ion beam out one direction, an electron beam out the other. >> See, you thought I didn't have any more secrets in me, chat. You thought there were no more Yatzis. You know, you thought it was going to be a boring live stream on a Friday. And it almost was until this moment. What am I looking at right here? Why am I looking at some Death Star Why am I looking at uh proton or uh Why am I looking at ion beams shooting out of this thing, Eric Lerner? >> What that means is that a lot of the energy in the fusion reaction actually ends up in a directed ion beam. If you're having a directed ion beam, and you take essentially a sophisticated form of coil, you can induce current in circuit as the beam is passing. And with adequate switching, you can make sure that that energy stays in the current and doesn't return to the ion. >> Okay, chat. Holy smokes. This creates an ion beam, an electron beam shooting in opposite directions, and because of this, we can induce a current in a coil and essentially extract energy from this beam that gets produced in the fusion reaction, we can extract and trap that energy in our fusion reactor. Does this sound familiar? Cuz this is basically the reason why George Miley and Frank Mead, David Froning, why those guys were building a dense plasma focus. Why chapter 4 is all about their fusion reactor dense plasma focus. This is why. This is exactly why, by the way, guys.