Quantum Computers - The Investigation

The last sliver of hope vanished in an instant. Malaysia's prime minister announced today that flight 370 went down in the Indian Ocean and all 239 people on board are dead. Most of the circumstantial evidence, I believe, points towards an abduction of this plane. I I don't know why and I don't know by who, but I'm I'm convinced that that plane was taken. Hey everybody, how's it going? Good to see you guys today. Hope everyone's doing well on this beautiful evening here. We got nice weather going on. It's been an awesome day. Uh thank you everybody for chilling here. Uh, I just decided to play that intro one more time because we've had uh, you know, case wrapped up. Uh, you know, we didn't get the conclusion we wanted, but we'll always be able to come back to it if necessary or, you know, um, present the evidence when the time comes. Eventually, people will get on board. Uh, how dare you say that song sucks. How dare you, Arwin. Uh, hey Randy. Hey Sandy. Hey his highness. Mystical Wonderland. Sham 6. Skinny Bob. Benonator. See you. Uh, no. We're still retired from the case. Uh, Yousef. Hey PJ Mike. Hey Aaron. Hey everybody. Yeah. Hey, uh, Barza Brian. Nice to see you out there as well. Okay, so what are we doing tonight? Um, we're going to do a quick recap of some of the recent posts and then we're going to get into doing some quantum computer investigation to understand what the point of quantum computers are. That's going to be tonight's stream. And then uh yeah, I don't know how long it'll be. Normally, I don't like to stream while Alien Scientist is doing his thing, but eh, just can't do much about it. Also, I'm probably gonna in the next week or so try to set some uh consistent schedule as well. I'd like to be able to stream earlier where the people who are in UK and what have you can can watch better, but we can't make everybody happy. So, it's probably going to between be around 8:00, but it could be as early as like 7. Not really sure. We'll see what's up. Okay, let's go ahead and take a look at what we got going on here. Um, so and at some point I'll probably move the evidence list off the pinned profile list. Um, so first thing is, uh, I found this Russian secret military base and figured, you know what, we can expose them, too. Although I feel like my life expectancy keeps dropping every time I make a post like this. Um, but there's like this secret base that has been talked about since 1996 uh in the New York Times. There's a Reddit post about it as well. You can find a lot of stuff if you guys Google this base. They don't like nothing about it other than between the late '7s and and the '9s, Russia spent $6 billion on this base. Some kind of underground mountain base. Kind of reminds me of Area 51. Um, so you know what? We'll expose Diego Garcia and we'll expose uh the Yamanau mountain base as well. So yeah, I also I want to Hey, Stevie and uh everybody else. Hey Sandy, I I want to make it so that and Arwin hey uh that everybody can um everybody in the United States can at least join. So we'll see. Yeah, I'm not going to remove the evidence list right away, but eventually eventually I will. Um, so then also this whistleblower for uh for Boeing just committed suicide. Pretty pretty damn weird. He's only 60 years old. He's been in a lawsuit uh arguing that Boeing has had lack safety standards. And this whole time we've had uh oh, that's what's going on. Turn this down a little bit. We've had uh let's see, we had a wheel fall off a plane while it was taking off last week. We had a door fly off several weeks ago and uh another plane crashed into another plane. And I mean, it's just been a disaster. I think there was even another one that like fell apart on the land on the runway. Like this is weird. This is extremely suspicious. Um, I don't really know what to say, but yeah, you guys, it kind of speaks for itself. Um, I also posted this weird clip. Bunch of people sent this to me. Project Unity sent this to me, so that's why I pulled it from his profile here. Um, automatically credits them when you do that. Kind of nice. I don't know what this is. What is this? You can see there's a little What is that? I I don't think this is CGI, but I just don't get it. Is this guy's got his camera just set up looking up? Is that what the deal is here? Anyway, pretty cool looking on this one. Um, the DEI jokes are funny, but in this

but I just don't get it. Is this guy's got his camera just set up looking up? Is that what the deal is here? Anyway, pretty cool looking on this one. Um, the DEI jokes are funny, but in this case, I I don't know if it has to do with that. Oh, yeah. Um, so I guess I I made this post last yesterday as well. Um, Candace Owens basically calls out Chris Como, who Chris Como is trying to play the like, you're supporting Russia card because you said something that's not negative about Vladimir Putin, right? Which is absolutely insane to me. And the reason why I posted this is because people were saying the same crap about me, right? They're like trying to say that if you post anything about Vladimir Putin that you are somehow uh sympathizer or something like we got straight up cold war propaganda going on right now, right? Um it's okay to think that somebody's capable and not a good person, right? And you hear a lot of this too when you talk about people who who are not Russian but uh like Andrew Tate. If you say anything if he says anything good and you try to praise him then people say it just jumped down your throat. I have to repeat this guys. The world is not black and white guys. The world is not black and white. It's not just good guys and bad guys. People if they do something you don't agree with that doesn't make them an evil person. Right? People can also be not great people morally but still say stuff that is correct. Like it scares me that people have this rigid mindset where everything is just either black or white because this is how nothing can get resolved in the UFO community or maybe in any communities in general, right? And this is what makes me think that we're going backwards um towards idiocracy as well. So Candace Owen basically describes the same thing that I was saying is that you know at least um Vladimir Putin can put a coherent sentence together, right? Um and then I guess Chris Ko retweeted it, which is probably why it has so many views, right? Chris Como retweeted this and um let's let's read his comment. I couldn't even understand what he meant. When you are looking at a man who spent two hours twisting facts and circumstances in an NTV2 suit, a murderous narrative as something that makes you envious, you are way past MAGA. This is a pathetic thing to applaud. Can anyone convert this from uh I think Chris Como had like a several too many drinks last night. I think he posted this at 10 o'clock at night. He seems like he was already super sloshed at that point cuz I can't even make sense of what he's saying. There's like an extra space here that there doesn't need to be. I don't know. I think in an incv like I don't even know what he's talking about here. And this just kind of like this is I'm just going to throw this out there guys. If I got in a debate with Chris Como, I would destroy this man. No doubt whatsoever. Um, anyone who is playing on mo more mo Russia narratives and and that's their big go-to is that you're a you're a bad person for saying the wrong thing, you have no chance in a debate, at least versus me. Um, because normal people see through this right? But the thing that's important is that what Putin said is that the United States government succumbs to propaganda. And it it's the height of hypocrisy for Chris Como to be saying this. This is a man who is literally running his brother's PR against the sexual harassment uh cases that were being brought against him and having his brother on CNN to do PR for him. This is not some This is somebody who's very morally flexible when it suits him and his family, but then when somebody else makes a comparison to Vladimir Putin goes immediately into cold war propaganda, right? Like that's a little bit alarming to me because we could use the same arguments against Chris Como and say that nobody should be talking to him because he literally abused his position as a reporter on a major cable news television station. Like to me that's wild, right? Chris Como or Andrew Como is not a good guy, right? He got a lot of people in nursing homes killed as James has pointed out in the chat. It's been argued over 10,000 people when he put positive COVID patients back into nursing homes where the most vulnerable people were, right? And then he had the sexual harassment thing come up against him and Chris Como was doing doing like just PR for him. That's the reason why he lost his job because it came out that there was a bunch of emails and they were able to prove that Chris Como knew about the whole situation. and he was like writing his brother's statements. So if that's your position, you have no footing to go and say somebody else shouldn't be talking about whatever, praising somebody or what have you. Right? So again, the point is though that and somebody who works at CNN or worked for CNN should absolutely understand that the United States government has just as much propaganda as we do, right? Just as much or as much propaganda as Russia does, right? We're better at it probably than they are, right? And that's the thing that scares me. And Candace Owens pointed some of that out. So we're not going to make this a whole

as much propaganda as Russia does, right? We're better at it probably than they are, right? And that's the thing that scares me. And Candace Owens pointed some of that out. So we're not going to make this a whole political stream. Uh I just wanted to post that out. My my response to him was, "The problem with America is this brainwashed mentality that Chris displays. The world isn't black and white. We don't have to agree with everything Putin does to find him capable. Putin was right. America is just as good or better at propaganda. Chris should know he works for CNN, right?" And here's my followup, too, is that I respect Chris on discussing the UFO phenomenon on News Nation, but I've noticed a clear political divide in the UFO community, and it's the ones who think that they aren't victims of propaganda in America that are holding back disclosure. Now, this is just a shot across the bow out there to all the CNN brains. You are literally the ones preventing us from getting disclosure. And the reason is that they think that the government is going to give it to them, and that's never going to happen. And if you think that the government is only going to tell you the truth and what have you, like you are one of the people who's making it impossible for us to move forward, right? And you guys have seen a lot of these people, they a lot of them have blocked me, even though I've literally never interacted with most of them because in their mind, if you're not in their tribe, then your voice doesn't matter, right? And it's very sad that the UFO community is like this, right? Extremely sad. And this goes to my next post, which we're going to listen to together here. This was from a live stream somebody uh pointed out. I went and clipped it. This is the problem with the internet in general is that there's no there's no accountability. These people don't want any accountability for the things that they say and the things that they do. They want to on other people and they don't want anybody else to be able to on them. And the moment you do, they have they literally have nut job meltdowns. You've got in the UFO community, you've got criminals, you've got psychopaths, you've got the worst out there. For some reason, all these UFO celebrities latch on to these troll too, you know? Like, I'm sick of all of them, man. They're all losers, and there's no surprise whatsoever. They've never accomplished anything, right? This is the problem with the Booya. I mean, that's just dropping the bomb on the UFO community, right? Um, this is the issue is that everybody wants to talk about stuff, but nobody wants to actually understand the science. Um, nobody wants to investigate anything. They all just want to talk and they don't even want to talk to each other. They just want to talk past each other. Um, I can't decide which side makes me more sick. uh the skeptics who are just completely um brainwashed and think and a lot of them have a savior complex where they think they're saving other people from their problems including Mick West, including that loser average Chris like these guys are just huge huge losers. Anyone who listens to these people like find better role models, right? But the other side may be even worse. the UFO believer side that um at least on UFO Twitter that I've seen that this and this is not going to be exclusive, but a lot of them are left-wing. A lot of them if you're not in their tribe, if you are not spouting the exact same narratives they are, if you don't have the same political beliefs that they do, um then they shun you and what you say can't be true or whatever. And that is probably more devastating than the than the skeptics are because these are the people that are supposed to be for disclosure and yet they're crowding out the voices that are trying to achieve disclosure just because of their political bias. And that is wow, right? And the worst part is they're terrible people too. I you guys have seen me interacting with them. They are absolutely terrible people. Um they they act like mean girls in high school, right? Just like like I said, complete Um and this is you look at both these sides, right? And it makes you realize that no wonder nothing has ever been accomplished in the UFO community, right? No wonder nothing's been accomplished. Neither side is trying to investigate or solve anything. The debunkers are just trying to rationalize to themselves that everything is fine. And the believers out there are too busy talking about their experiences to actually dig into any evidence. And they're happy to have stuff be debunked, even if it's not necessarily debunked. They just don't care. They just want their their world view to stay intact. Both sides really do, right? Um so honestly, I just I find the whole thing pathetic. Uh and I'm glad that we are going to be focusing on the science side of it, which gets us to today's topic, which is uh quantum computers. Okay, so let's go dig into some quantum computer stuff. Okay, I want to start with uh the whistleblower letter to Ashton Forbes. And the reason why I want to start with this is there was a very

which is uh quantum computers. Okay, so let's go dig into some quantum computer stuff. Okay, I want to start with uh the whistleblower letter to Ashton Forbes. And the reason why I want to start with this is there was a very clear part of this that weirded me out when it talked about quantum computers because there were three things that I primarily brought up when I first started looking at those MH370 videos. And the more that I've talked to scientists and engineers, I mean, a lot of people have reaffirmed that, Ashton, you you nailed it, right? It was like throwing a dart at a dart board and you just hit a bullseye, right? One of them was that we need quantum computers AI can explain the orbs spinning around. That's the one we're going to be focusing on tonight, right? The other one was room temperature superconductivity. You see rocks floating around on magnets, reminds you of anti-gravity, right? And then the third one was um wormhole science, right? And so these are the things that we've been looking into trying to understand. Er equals EPR, Bose Einstein condensates, um etc. Okay, let's go ahead and take a look. Let's listen to the part of this letter that's relative to this. The big breakthrough to apply the tech as we do today came in the beginning of the 2000s with quantum computers and by this the paradigm for AI technology. What we had to do programmatically before we now can do with something akin to machine intuition. This lets us operate in fastm moving environments where event-based logic in linear programming was very limited. As I said, what you have found is not the technology itself. It's just one of many derivatives of the tech. The big breakthrough to apply the tech as we do today came in the beginning of the 2000s with quantum computers and by this the paradigm for AI technology. What we had to do programmatically before we now can do with something akin to machine intuition. This lets us operate in fastmoving environments where event-based logic in linear programming was very limited. As I said, what you have Okay, chat. So, the letter argues that in the early 2000s, that's when the technology took off. Machine intuition, quantum computers. Um now the weirdest part about this is when we look into quantum computers the big thing about them is it's similar to the double slit experiment. If you were to imagine conventional computers to be uh the double slit experiment with the wave function broken down where you just see the two slits then the quantum computers are the double slit experiment when you see the wave function with the interference pattern. And why is this important? because it's a Gaussian uh probability chart, right? Is that the way quantum computers work is kind of like how a human being thinks about all the things that can happen is that you look at the probability wave and you say these are all the things that can happen and then and you do this subconsciously where you take in all the factors. If you were to make a prediction about something, you would be basing off all your knowledge, right? And all the predictive information that you know. The idea is that quantum computers can also do this is that quantum computers can look at all the probabilistic options of what could occur and they can highly probability of what's going to happen. Now, some of the craziest claims that I've heard about this is that the quantum computer can, for example, predict um what side of the coin is going to flip, is going to be face up when you flip it with better than 50% average, which even something just even 51% would be remarkable, right? Because on average, if you flip a coin and guess, you should get 50%. Now if you're somebody out there who when you guess you're getting 75% of it right now you are psychic right you are somehow looking into the future. Now this same thing is being argued here for quantum computers it said in that letter that places where eventbased logic breaks down right now what's it talking about there it's talking about this same thing about here's all the probabilistic things that can happen quantum computers can figure that out. Now, how is that relevant to teleportation? In my mind, the way that it's relevant to teleportation is something we're going to be digging into here about the quantum computers, but the idea that the quantum computer can like guess where things are going to be at specific point in time. Um, and that's a little bit kind of esoteric, but the idea here would be like somehow it's able to, you know, entangle the particle, entangle the orbs, potentially potentially able to um have the information be read that's required when you make a wormhole to pass the information over to the other location. Not entirely sure, but it seems like somehow these quantum computers are related to extremely advanced technology. And the reason why that's important is that um I'm just going to flip over to full screen that we don't fully understand the point of quantum computers, but they're being used. We produce them. Why did we produce something that we don't even know how it's going to be used? Doesn't that seem odd to you guys? And if we take the understanding that the military is decades or more advanced than we are, then doesn't it make sense that they have some purpose for it that they've

it's going to be used? Doesn't that seem odd to you guys? And if we take the understanding that the military is decades or more advanced than we are, then doesn't it make sense that they have some purpose for it that they've already figured out and that the information leaked into the public sphere about quantum computers and now the public is making them. But again, what's the point of them, right? And not to rag on L reviews. L reviews thought quantum computers are fake, which is pretty absurd and ignorant. But he kind of has a point in terms of well what's the point of them right? We're not like using them. Now theoretically this idea that you could have computer machine intuition should make quantum computers significantly more powerful than regular computers where it's just ones and zeros and processing through functions. Quantum computers can look at all the probabilistic natures of everything and and piece everything together almost like a human brain can. Right? It almost makes me think of um you know the same way that the human brain works, right? That's kind of how I I think about stuff as well. Some of you who believe in some of the more esoteric aspects, right? If you believe that you have precognition that sometimes like I've had dreams where especially when I was younger that sometimes like those dreams felt like they would happen in real life. This is how I equate that machine intuition. this idea that your brain is subconsciously able to pull in all the factors and create a series of events that's very likely to occur in the real world just based on everything that you've experienced, everything you know is going to happen in the future. Um, and now if computers can do that, do they become conscious themselves? So, I think those are the questions that we should be thinking about here. Um, and uh, Artisan Tony brought up a good point here in the chat. says, "Our current AI will need to move past just predicting the next word to be able to couple it with quantum computers." I would argue that the AI that we have is probably on the commercial side a very rudimentary form of what is possible. And they talk about putting safeguards on the AI as well. I would imagine that the military AI is potentially decades more advanced, especially if it was early 2000s like that letter states in terms of when the uh stuff became available. So, and if you guys have any insights here as well, um a Boeing Dreamliner nose dived yesterday as well. Dude, what is going on with these Boeing planes? Holy crap. That's like five incidents in the last two weeks. Um, so if you guys have any insights in terms of the AI quantum computer stuff before we dig into all of this, um, feel free to put it in the chat while we're going through. This is going to be a group investigation that we're doing here today. If you find out anything else that you think is relevant around quantum computers, um, you can put it in our Discord. Please keep in mind, guys, um I have to say this a lot. Um just because I don't want to hurt anyone's feelings or whatever, but like if you post like an hour long, actually anything over 30 minutes, please post the clip that you want people to listen to, right? People send me stuff that's hour, two hours, three hours long. I don't have time for that. Just reality. I don't have time for that. Um please post the timestamp of the segment that you want us to listen to. Um if it's just a general link that's about it you want people to know about, that's fine. But if you want us to really dig into it, best thing you can do is you can take a read listen for yourself, listen to any segments and clips that you think are very important. Um, I appreciate when people do that. And if you post it on your Twitter, then I will either retweet you uh if your context is nice. Otherwise, if you don't put good context or you have a lot of stuff up there, then usually I'll just copy and paste the video, but it'll still say, you know, from so and so in there. So, um, one sec, guys. No martinis tonight, chat. We're beering it up. We're beering it up. And if anyone wants to know before we dig into this what I've been up to the last couple days, uh, building a puzzle. Building a puzzle. Almost done. Almost done building that damn puzzle. but it's a super super annoying one. Um, okay. Microsoft, Azure, and Google has one as well. So, a lot of these big companies have quantum computers. The big question is what are they doing with them? One thing we know quantum computers can do is they can entangle cubits. But what does all this mean? What do you do with it? Right? Um, so let's go. Let's start off with this. Quantum computers, what are they good for? Um, for now, absolutely nothing, but researchers and firms are optimistic about the applications. Okay. Uh, let's see. They say there's nothing that they can be used for. All quantum computers could be described as terrible. Um, computers that exploit the strange behaviors of the atomic realm could accelerate drug delivery, crack encryption, speed up decision making and financial transactions, improve machine learning, develop revolutionary materials, and even address climate

All quantum computers could be described as terrible. Um, computers that exploit the strange behaviors of the atomic realm could accelerate drug delivery, crack encryption, speed up decision making and financial transactions, improve machine learning, develop revolutionary materials, and even address climate change. Now, one I want to point out right here, climate change. What the how the hell is climate change getting how is that being addressed in here? the the revolutionary materials. Now, this is one where I think is really interesting. Uh I might actually post this later tonight um because I think this is a good question, which is could quantum computers give us disclosure. Now, why do I say that? Because quantum computers can pull all information that's out there, right? language even just from the language learning models which is super interesting where it can pull all the information in. They're using it to actually create meta materials right now where they can have quantum computers create different materials and say here's what those properties are going to be. That is amazing to me because now we can find other stuff like LK99 super easily especially when some of the elements are extremely expensive like gold, right? I think that gold is a better candidate for LK99 than copper, but it's like a thousand times more expensive, maybe even more than a thousand times more expensive, right? So, quantum computers can look for metamaterials. They can absolutely help potentially with they might even help in the future with UFO investigations similar to the one that we did helped us a lot. We look used it for a lot as well. Um, the speeding up decision-making transactions. This is pretty interesting, right guys? because this seems very similar to what we've been talking about with what could they be used for from a technological perspective, you know, if there are some orbs floating around out there. Um, and then cracking encryption is another one as well where remember when we had the the scam situation go on and we were trying to crack the RAR file. Remember how many billions and billions and billions of passwords we were looking there? Now quantum computers can probabilistically, you know, hone in on the right passwords and and solve it in significantly more time or less time. Um, let's see. Justified skepticism blah blah blah. Um, okay. Quantum computers store data in quantum binary digits called quantum bits or cubits. So cubit stands for quantum bits. that can be made using various technologies including superconducting rings guys there's our favorite word superconductors. So apparently quantum computers use room temperature superconductive microchips which hey you guys want to know have you have you guys checked out recently to look at what uh let's take a just let's just look at one semiconductor stock called Nvidia. If we look back 6 months, let's just take a look back 6 months. What? It was at 400 6 months ago. It's at 857. It was at 926. It was at 416 on September 22nd. This stock has doubled. Nvidia stock has doubled. Why is Nvidia stock d? It's definitely not off graphics cards, guys. It's not graphics cards causing this to happen. I think the word is starting to slip out towards investors. Room temperature superconductive microchips. I would bet almost anything. Again, that's not investment advice, but keep it in the back of your mind. Okay. And now, let's keep reading here because I'm seeing a word here. Um, some technologies require cooling to absolute zero. Others operate at room temperature. It's almost like they're telling us about this room temperature superconductors, but they just don't want it to get out there. Um, whatever the design, the clever stuff happens when cubits are carefully coaxed into superposition states of indefinite character. Essentially, a mixing of digitals, ones, and zeros rather than definitively being one or the other. Running algorithms on a quantum computer directly uh involves directing the evolution of these superp position states. The quantum rules of evolution allow for cubits to interact to perform computations that are in practical terms impossible using classical computers. Yeah, Nvidia chips power the AI LLM. I did not know that. I I would bet you anything they have extremely powerful chips that are I bet they have room temperature superconductive microchips. Almost certainly, guys. Almost certainly. Uh that said, useful computations are possibly only one quantum machines with a high number of cubits. Those do not yet exist. Okay. Blah blah blah. Let's keep going. Skepticism. Okay. Quantum hop. Okay. I want to know what they can do here. Um they published simulations of this sulfon sulanium ion. So this is the part where they're talking about they can understand the mic the stuff. Okay. Well this one's kind of lame. Let's look at a different one. Let's go to a video to build the most powerful computer on the planet and that's a universal quantum computer. quantum computer which is able to run any quantum algorithm and it does so by using quantum error correction and built on a platform of silicon technology. Oh, did we see that? Hold on. of silicon tech correction and Yeah. So, look at this microchip that they've got here. Okay, let's see what we got here. Cubits are made using physical systems such as the spin of an electron or the

Hold on. of silicon tech correction and Yeah. So, look at this microchip that they've got here. Okay, let's see what we got here. Cubits are made using physical systems such as the spin of an electron or the orientation of a photon. These systems can be in many different arrangements all at once. a property known as quantum superposition. Cubits can also be inextricably linked together using a phenomenon called quantum entanglement. The result is that a series of cubits can represent different things simultaneously. Quantum entanglement chat. Wow. Um I keep thinking back to ER equals EPR, right? In ER equals EPR, you can have a system that can go through a wormhole, a system of information. And when you read one answer on one of the pieces of system information, it makes the system information show up on the other side unscrambled. Now, why is that important? Because if it shows up unscrambled, now we have this possibility where we can send something extremely complex like an airplane full of people through a wormhole and have it show up on the other side. Now, what does that really mean, right? It's it really equates to the double slit experiment is that what we do is we break down the wave function of the system and we or we turn it we rebuild the wave function of the system. I apologize. Turn it into a wave function. Now the plane is not in any one particular point. And now we have the quantum computer read that information. It's receiving location. The area where they've entangled these particles to let's say a fourth orb somewhere. And now that information will instantly appear over there. Now what happens is the wave function breaks down and when that wave function breaks down now the plane gets a probabilistic place in spaceime. or not a probabistic a definitive place in spaceime. Sorry if I said that wrong. Um and so to me this somehow intuitively this is definitely connected to the idea that we can teleport an object right somehow quantum entanglement and super these u quantum computers are enabling it. Companies have been working on building quantum computer chips for decades. I'm here in London to visit a quantum startup that's taking a different approach. We're taking one of the most uh ubiquitous devices uh in in the world today, the silicon transistor. You and I will have billions of of transistors on our person in our watches, our computers, our phones, and take that silicon transistor and use that to store a quantum bit or a cubit. And in that way we'll be able to make quantum processes um that can scale up and really tackle to um in in the box in the computer uh design new kinds of materials, new chemicals. Yeah. So this is one of the things that they're talking about using it to design different materials, right? So we know about that new drugs uh in a way which is much much faster to wire them up uh to be able to to run quantum algorithms. uh and then you need interactions between the different cubits to form that that basic unit of we use it to cool down our quantum chips to a hundth of a so this is interesting this whole apparatus is what they're using to cool the chips down because they need to be cooled down imagine if they didn't need to be cooled down now your system your processor could get extremely tiny right pretty wild degree above absolute zero this kryostat works in in it has different stages when it's cold. Um there's a there's a plate here um which is uh a temperature of one of the uh the planets for the more distant planets in man. Imagine if we've got this and the government has room temperature superconductive microchips. Imagine their quantum computers, right? Their quantum computers are like going to be the equivalent of magic. And hey alien girl and Tony, I don't know if I said hi. Hey James, pick James out there hiding. Hey. in our galaxy. Um this plate here is about the temperature of deep space. Um and then this plate here is 100 times colder than that about 10 millich Kelvin or a 100th of a degree above absolute zero. What is Yeah. So they have to keep it at absolute zero in order for this to work. So this is the part where I want you guys to remember the first bold prediction that I made. Room temperature superconductive metamaterial. Right? If you have room temperature superconductive metam material, all these problems, they have this cryo chamber that's freezing it down below deep space temperatures, right? Yeah. This is 100 times colder than deep space. That's what he just said here. So, just think about how important it is to have room temperature, high temperature superconductors. That would change everything about quantum quantum computers are going to take off the moment we have like LK99, right? Because what they're going to do with that is they're going to turn it into superconductive microchips. And you know how small those superconducted microchips are? It doesn't even matter that the LK99 is super tiny in terms of how many how much they can make because they don't need that much. For a microchip, you don't need much. For power transmission over power lines, you would need a lot. But for just making little microchips, probably not much at all. They need to be so cold.

need that much. For a microchip, you don't need much. For power transmission over power lines, you would need a lot. But for just making little microchips, probably not much at all. They need to be so cold. So that's why it makes sense that they would be the first things that we would produce, right? Super room temperature superconducting microchips. The more I'm thinking about this, that's probably going to be one of the biggest things we uncover. Now, what have we already learned? We've already learned that they are useful mechanisms for it. One of the useful mechanisms is for uh finding out the properties of potential materials that are going to be out there. I think that's huge. Imagine if we can just have, you know, um other types of uh materials. Um some of the other things that I'm thinking about right now that I don't want to forget are what this would do to like mining Bitcoin. If this computer is thousands of times more powerful than regular computers, then this thing could mine you Bitcoin and make you millions of dollars, right? the faster it is, the more powerful it is. Uh the you know because now take imagine you have like a million computers. You have a botnet and you have put a virus on people's computers where it they're mining you Bitcoin all the time. If this thing is a thousand times more powerful or a million times more powerful, this thing is going to mine you Bitcoin like instantly, right? Bitcoin's $71,000 right now. I imagine that when quantum computers come out, the price of Bitcoin is going to collapse. Um, that would be my prediction. Uh, because people are just going to be able to mine it and therefore it's supply and demand, right? So, you just got another prediction from me. Um, what was the other thing I was going to say? The other thing is the stock market. I imagine that quantum computers can do the same types of probabilistic nature and and looking up information that's out there to prop probably adequately predict what that's going to happen in the stock market, right? tell you which companies you should invest in, which ones are going to go up or down, which ones are overvalued or undervalued. It's going to make a big big difference. Down here, what what's happening in this area that's not happening up there? We want to cool our chips down to very low temperatures um to and Harriet just said they're already using it for infinite distance communication. Yeah. Yeah. There's definitely faster than light communication is definitely possible as well. Even Tim Pool didn't have any problem believing in faster than light communication which I thought was just funny because you know uh it's only one step up to uh teleportation of an object right but they are using it to entangle information here and entangle cubits together and then just like I mean even just using like something like Morris code right like Morris code can send information with just beeps so really if you can send anything over a vast distance at faster than the speed of light there's you're going to have a way to communicate using it, right? To suppress noise and errors and allow uh these single electrons to be well behaved as cubits in the silicon chips. At the moment, we're very much in a in an R&D phase, right? We're we're developing the technology. So, a lot of what you see here wouldn't be required for a a standalone operating quantum computer. At the moment, we want a lot of flexibility. We want to be able to change the types of measurements that we're we're probing our chip with. But pretty much everything that you can see in these racks um could be miniaturized to to a to a a very small um controller. But the great thing is that now with cloud computing so he just mentioned the thing about it being miniaturaturized as well. And that's where the superconductive microchips would come into play, the room temperature ones, right? If this start can be miniaturaturized, oh boy. And people say, "Yeah, Bitcoin has a difficulty adjustment." Absolutely. But these computers are thousands or millions of times more powerful than regular computers. The moment your computer no longer heats up and you can and that's just with conventional uh hardware. If you can make it where your computer no longer heats up, now you can overclock your your PC significantly, right? Thousand times. Uh and quantum computers are don't even use traditional processing, right? They use probabilistic. It's pretty wild. Um there's another interesting side question or note is that whether or not you believe blah bazar or not he said that the engines produce the UFO engines produce zero heat but huge amounts of power like he said it went against all laws of thermodynamics. Um no I think that one thing we have to keep in mind is that the energy of vacuum energy of the vacuum is not zero there's energy in the vacuum state all around us everywhere right and if you can tap into the ether into neg entropy then you can even have situations where it's cooling down your system right then this is where I think Salvatore pious potentially uh talks about achieving room temperature superc conductivity uh without metam metam materials and that's something I'd like to focus on a little bit more at another time. But I don't think that for quantum computers you can it would be harder to uh use a non- metamaterial.

superc conductivity uh without metam metam materials and that's something I'd like to focus on a little bit more at another time. But I don't think that for quantum computers you can it would be harder to uh use a non- metamaterial. Overclocking is turning somebody else can help me out, but I'm pretty sure it's like um making your processor run faster, but the problem is you're going to heat up your processor. So when people back in the day before um uh graphics cards got like really really good there it was always a battle of getting a better graphics card to play the games that you wanted to play on your computers. And so what people would do is they would overclock their their CPUs in order to get better performance so that they could play all the shooting games that have better you know frames per second because all those things would matter, right? And so the cool thing to do when I was in high school, and this was 20 years ago, more more than 20 years ago, was everybody was overclocking their their their processors, but they didn't want them to overheat. If they overheated, then you fry you fry your computer, right? I never did it, but people did a lot. Um, and yes, so if you're the superconductors make it. So remember guys, let's just get back to the basics of what is resistance. Electrical resistance, guys, is when electrons are flowing through a system and when they go through the conductor, the semiconductor, the reason why it's called a semiconductor is that some of the electrons are bumping in to the atoms. When they bump into the atoms, what happens? Causes friction, causes things to heat up. What you want is you want a highway. You want a highway where your electrons have no resistance whatsoever, where they're flowing freely and none of them are ever bumping in to any of the other atoms. Remember that's Cooper pairs. Now, when you achieve that state, now you have superc conductivity. And if they're not hitting any atoms, then they're not heating up at all. Right? If they're not heating up at all, now this is where you can overclock your processor significantly. the user from the from a smartphone can access the power of quantum computers without even realizing that it's not in the in the palm of their hand, but the actual computing is being done um in some remote location. Yeah, they're talking about comput, right? So, you can set up a cloud processor that has a quantum computer and then you can just log into it on your phone the same way we log into language learning models, right? is on with dozens of companies and bill. Instead of one slender twist of wire, it has organized silvery swarms of them neatly braided around a core. They are arranged in layers that narrow as you move down. Golden plates separate the structure into sections. The outer part of this vessel is called the chandelier. It's a supercharged refrigerator that uses a special liqufied helium mix to cool the computer's quantum chip down to near absolute zero. That's the coldest temperature theoretically possible. Yeah. So, this is a big problem is they have to cool these things down, right? Um, yeah, computers have throttling now to make sure that you can't. It's kind of like when my my remember when my uh camera was turning itself off all the time, guys. At such low temperatures, the tiny superconducting circuits in the chip take on their quantum properties. And it's those properties, as we'll soon see, that could be harnessed to perform computational tasks that would be practically impossible on a classical computer. The Cooper pairs themselves are quantum structures, guys. When the Cooper pairs form, not only can they not go up to a higher elevated state, they get stuck because they're so cold, there's no way for them to jump up. Uh, but they basically begin to form like a wave. They they get they form that Bose Einstein condensate. Uh, actually that's probably I'm probably mis misusing that term, but the same idea applies, right? Is that they form a state where they can flow freely like a wave does. It's like quantum teleportation, right? Traditional computer processors work in binary. The billions of transistors that handle information on your laptop or smartphone are it's almost like a singularity. Either on one or they're off zero. Using a series of circuits called gates, computers perform logical operations based on the state of those switches. Classical computers are designed to follow specific inflexible rules. how crazy it is that our computers right now just use gates of ones and zeros and that produces everything you guys are seeing right now produces these the videos that I'm looking at right now with you guys the fact I'm streaming to you guys the fact that you see myself picturein picture in the bottom right uh the chat that you see all of this is just ones and zeros in a computer right so even if we think about quantum computers in their base form which is uh measuring spins and probabilistic nature just Think of how much that can advance in the same way that you think of just ones and zeros of advance to the point where you see all of this stuff that we're looking at right here. This makes them extremely reliable, but it also makes them ills suited for solving certain kinds of problems. In particular, problems where you're trying to find a needle in a hay stack.

all of this stuff that we're looking at right here. This makes them extremely reliable, but it also makes them ills suited for solving certain kinds of problems. In particular, problems where you're trying to find a needle in a hay stack. This is where quantum computers shine. If you think of a computer solving a problem as a mouse running through a maze, a classical computer finds its way through by trying every path until it reaches the end. What if instead of solving the maze through trial and error, you can consider all possible routes simultaneously? Okay, guys, this is the money right here, right? A regular computer, this is a great analogy. A regular computer is trying to go through every permutation. Just think of us trying to hack the password, right? It's going through every permutation one at a time. The quantum computer can look like we look down at the maze and it can immediately find the right path, right? Can immediately figure out that this is the right path here just like I just did right there. That is a huge huge upgrade. And when you think about that, like this is the type of thing that when we think back to the letter that we played early on, this is the kind of thing that would be required in order to achieve that machine intuition, right? Where it's almost like it's tapping into some type of esoteric capability of the universe itself. That's pretty crazy, guys. Like that's a huge upgrade in in processing capability. Now, how do we connect that to teleporting objects? Not quite sure, but we got to start at the ground up and work our way up there and then the answer will at some point when we get knowledgeable enough present itself to us. Quantum computers do this by substituting the binary bits of classical computing with something called cubits. Cubits operate according to the mysterious laws of quantum mechanics. The theory that physics works differently at the atomic and subatomic scale. The classic way to demonstrate quantum mechanics is by shining a light. There it is. There it is, chat. There it is. Look at this. Literally showing us a double slit experiment through a barrier with two slits. Some light goes through the top slit, some the bottom, and the light waves knock into each other to create an interference pattern. Booyah. But now dim the light until you're firing only individual photons one by one. These are the elementary particles that comprise light. Logically, each photon has to travel through a single slit and they've got nothing to interfere with. But somehow you still end up with an interference pattern. Here's what happens. According to quantum mechanics, until you detect them on the screen, each photon exists in a state called superposition. It's as though it's traveling all possible paths at once. That is until the superp position state collapses under observation to reveal a single point on the Guys, I got to be honest. The only way this makes any damn sense whatsoever is if our world is a simulation that we live in a computer program of oursel. There is no effing way that the wave function can break down like this and that light can be in some type of superp position, right? Unless we live in some type of simulation. There's some processing happening all the time around us, right? To me and people argue that no no double slit experiment doesn't prove that uh holographic principle is correct. Yes, it does. Yes, it does. Nobody can explain why the wave function breaks down, right guys? Observation is just another term for measurement. They're they're synonymous, guys. A lot of people split hairs over this. When you observe something, that's you measuring it with your eyes, right? So observation is synonymous with measurement. Um, and why is that important? That's important because this is the same idea of ER equals EPR that we have, right? Where you pass the information over to the other side and now the object starts over here on this side of the wormhole and next thing you know it's on this side of the wormhole, right? So I mean to me I don't know if somebody else can come up with a better explanation you can win a win a Nobel Prize but this is to me is proof of an extra dimension in my opinion. The screen Cubits use this ability to do very efficient calculations. For the maze example, the superp position state would contain all the possible roots and then you'd have to collapse the state of superp position to reveal the likeliest path to the cheese. Just like you add more transistors to extend the capabilities of your classical computer, you add more cubits to create a more powerful quantum computer. Thanks to a quantum mechanical property called entanglement, scientists can push multiple cubits into the same state even if the cubits aren't in contact with each other. And while individual cubits exist in a superp position of two states, this increases exponentially as you entangle more cubits with each other. So a two cubit system stores a 20 cubit system more than a million. So what does ah okay so the more cubits that you store the more information and processing you can do right because each cubit has any number of possible states and when you add more now you're exponentially increasing the possible states of everything which is all the different possible permutations that it can perform. Right? Right? So instead of going through them one at a time, it can

has any number of possible states and when you add more now you're exponentially increasing the possible states of everything which is all the different possible permutations that it can perform. Right? Right? So instead of going through them one at a time, it can store all the possible permutations of what's possible if you have a system that's large enough. Um and then it can uh solve for it. Wow, guys. Damn, this is freaking me out. So let's say that there's so much information in let's say a 777200. The size of a 777200 has almost in our minds almost an infinite amount of information. If we were going to use let's say a traditional computer to map every single atom in the plane it would we would be impossible. There wouldn't be a computer there's no supercomputers on the face of the earth powerful enough right conventional ones. But when we start to deal with stuff like exponentially increasing capabilities, this is where quantum computers start to go nuts, right? Because now even if the amount of information that's in a 777 is a huge amount, every time you add another cubit, your information is increasing that you can store and process exponentially. So, at some point, you're going to catch up really quickly, right? Just like if you were to add 2 plus 2 plus 2 plus two, it's going to take a long time to get to, let's say, a million. But if you go 2 * 2 * 2 * 2 * 2* 2, you very quickly get to a million, right? Much less permutations. You can simulate entire worlds. You can simulate the entire galaxy, right? If you if you make it powerful enough, and we don't even need that much. All we need to do is simulate an a plane. We want to simulate a plane and we want to move a plane from one location to another location. Right? This is where I think that that's the secret of how we can have enough information to map it. And then the other one is how do we increase our energy densities? Right? This is another thing that I think superconductive magnets can allow for us to do. You have a room temperature superconductive magnet and you jam these magnets either together or some type of interaction where they amplify. They don't amplify linearly, they amplify exponentially. And when they amplify exponentially, now you're reaching a singularity where you're going to get to infinite power states, right? Or enough that doesn't really matter. Enough for whatever you need to accomplish. If you need to break through the fabric of spacetime, break through the swinger limit, we can do that. This is the secret of the universe is that things we think in a linear fashion, linear progression. But if things can increase exponentially, then we can achieve information processing that is essentially infinite and we can ex explain uh power densities, power generation that's infinite as well. Pretty wild. Um, and I won't be calling it simulation anymore. It offends some people, but the reality is that that's you call it whatever you want. I call it a matrix. Um, I mean, that's what's going on here, right? That's that's what's going on here. Does not make our lives any less meaningful. Um, our everything we're still doing is absolutely real because reality is just what we see around us, right? Um but but I think there's no other logical conclusion to what this to the double slit experiment uh faster than light communication, faster than light travel, all this stuff is only possible if there's some underlying framework just like computer code within our universe. Now it's just that's really how that's that's how the chips fall, guys. So I will be referring it to as a as a matrix because that's how I like to think about it. I actually had a talk with a woman at the dog park today. She she mentioned that her husband that she was a widowerower and I told her that she'll meet her husband again in another life. And then she mentioned uh quantum mechanics and next thing you know we were sitting there talking for like 30 40 minutes about everything. Pretty wild. Oh, okay. We're going to look into the fifth generation D-Wave in a second. Thank you, Skinny Bob. Uh yeah, Deremmes, I I briefly talked about the Boeing employee at the beginning. If you guys want to go back, check out the first 20 minutes. We went over some of the recent stuff, uh the Boeing employee stuff, my message to the UFO community, and what I took away from it. And now we're hard into the quantum computer stuff. What does that mean for computing power? It helps to think about applying quantum computing to a real world problem, the one of prime numbers. A prime number is a natural number greater than one that can only be divided evenly by itself or one. While it's easy to multiply small numbers into giant ones, it's much harder to go the reverse direction. You can't just look at a number and tell its factors. This is the basis for one of the most popular forms of data encryption called RSA. You can only decrypt RSA security by factoring the product of two prime numbers. There's a there's an FX show. I've heard about that show Devs. I've never seen it. That's pretty cool. Um, okay. We're

can only decrypt RSA security by factoring the product of two prime numbers. There's a there's an FX show. I've heard about that show Devs. I've never seen it. That's pretty cool. Um, okay. We're going to look at quantum what was it called? the D-wave fifth generation after we we're gonna we're probably not gonna go through this whole thing, but we're going to look at this in a second, too. Okay. Each prime factor is typically hundreds of digits long and they serve as unique keys to a problem that's effectively unsolvable without knowing the answers in advance. Yeah. So quantum computer is going to crack this uh prime number thing like instantaneously. That's that's no big deal at all for a computer. In 1995, MIT mathematician Peter Shore, then at AT&T Bell Laboratories, devised a novel algorithm for factoring prime numbers, whatever the size. One day, a quantum computer could use its computational power and Shore's algorithm to hack everything from your bank records to your personal files. Yeah, I mean encryption means nothing, guys. So one of the things yeah entanglement is non-local. So what does non-locality mean? It means faster than light. Non-locality came up from the double slit experiment. That's how we found out about quantum entanglement. Um because we had to figure out how is the universe reacting faster than the speed of light which is how fast we see something. That's how we measure something, right? Um and so yeah, when you have these faster than light effects happening, this is stuff that's essentially magic. I would argue that breaking encryption like super powerful encryption is essentially magic as as well, right? Because now think about the same thing we just mentioned is that we need a certain amount of processing power. Like just think of the idea of we're going through the passwords one at a time, right? If we have 256-bit encryption, we're never going to break it. Right? You could spend all the time in the universe and you would never get the password correct. It could be anything. Right? Quantum computers can just hack it instantly. Why can they hack it instantly? because they can achieve information levels that are so high that they can figure out everything about the universe, right? Because again, it increases exponentially instead of linearly. And so if you have a powerful quantum computer, it's going to crack your password instantaneously. And it's going to figure out the the password probabilistically. I mean, it's cheating. It's cheating. There's no other way to put it to explain it, right? It's like if a psychic just said, "Oh, here's the password." and gave you the password. And you just cracked it immediately. You would say, "Well, you are a psychic, right? You must have some kind of psychic powers. But no, quantum computers can just process everything instantaneously like that. Pretty wild, huh? In 2001, IBM made a quantum computer with seven cubits to demonstrate Shor's algorithm. For cubits, they used atomic nuclei, which have two different spin states that can be controlled through radio frequency pulses. This wasn't a great way to make a quantum computer because it's very hard to scale up. But it did manage to run Shor's algorithm and factor 15 into three and five. Hardly an impressive calculation, but still a major achievement in simply proving the algorithm works in practice. Even now, experts are still trying to get quantum computers to work well enough to best classical computers. That remains extremely challenging, mostly because quantum states are fragile. It's hard to completely stop cubits from interacting with our outside environment, even with precise lasers in super cooled or vacuum chambers. Yeah. So I see they put them in a vacuum chamber because any anyone looking at it, right, any measurement, anything looking at is going to break it out of its alignment. So they need these things to be absolute zero. Probably not visible. No interaction with the environment whatsoever. Seems like a vacuum. Something like a vacuum chamber would probably be best. Huh. Any noise in the system leads to a state called decoherence. worse decoherence. Guys, remember early on macroscopic uh quantum decoherence and we changed it to macroscopic quantum coherence when we started to learn more. It's not decoherence that we're trying to obtain. We're trying to obtain coherence. We need everything to be in the same exact position that we need in a very specific position so that we can move that exact information from one location to the other location without anybody coming out like Lord of the or what's it called the Flyman or you know stuck in the walls. Superposition breaks down and the computer loses information. A small amount of error is natural in quantum computing because we're dealing in probabilities rather than the strict rules of binary. And so here's your Gaussian um function here. So this is you guys have probably seen this a lot, right? The whole universe almost everything there is works in functions like this. Even let's say the average height of an individual of a of a human being. The average height's going to be right in the middle, right? And the number of people that are going to be taller or shorter is going to be consistent with this uh this function that we see here, probability function. Someone who's like Shaquille O'Neal is

be right in the middle, right? And the number of people that are going to be taller or shorter is going to be consistent with this uh this function that we see here, probability function. Someone who's like Shaquille O'Neal is going to be way over here in the 99th percentile. Right? This is where you start to talk about the percentile. What percentile are you in everything? Everything that we do, we can measure like this. Basically, I don't think that's I don't think that's a coincidence. But decoherence often introduces so much noise that it obscures the result. When one cubit goes into a state of decoherence, the entanglement that enables the entire system breaks down. So, how do you fix this? So what did she just do right there when she talked about the decoherence? The decoherence is measuring it. Right? This is the exact same thing that we see when we're talking about the double slit experiment and the wave function collapsing. The wave function is collapsing when decoherence is applied. Right? The moment you have decoherence, boom, wave function breaks down. Looking at even one part aspect of it, boom, breaks down. This is like Schrodinger's equation, right? Is the cat alive in the box? We don't know until we look. The it's weird stuff to think about people. Answer is called error correction and it can happen in a few ways. Error correction number one. A fully error corrected quantum computer could handle common errors like bit flips where a cubit suddenly changes to the wrong state. To do this, you would need to build a quantum computer with a few so-called logical cubits that actually do the math and a bunch of standard cubits that correct for errors. It would take a lot of error correcting cubits, maybe a 100 or so per logical cubit to make the system work. But the end result would be an extremely reliable and generally useful quantum computer. That's interesting. So what's the solution to having errors and things breaking down? Just add more cubits. Just add more cubits, right? And um then you you know you figure it out. Error correction number two. Other experts are trying to find clever ways to see through the noise generated by different errors. They are trying to build what they call noisy intermediate scale quantum computers using another set of algorithms. That may work in some cases, but probably not across the board. Error correction number three. Another tactic is to find a new cubit source that isn't as susceptible to noise, such as topological particles that are better. Topological particles. What you're talking about topological monopoles here is this the same thing as Bob. Yo, William, you need to chill out, man. I might be giving you a timeout as well. Um, I just want everyone in the chat to take their ego down several pegs. Um, if if everyone knew the answers to the universe, then we wouldn't have to do any of this stuff. So, we don't need anyone pretending like they know everything. It's not that's not really helpful to anybody at retaining information. But some of these exotic particles or quasi particles are purely hypothetical. So this technology could be years or decades off. Because of these difficulties, quantum computing has advanced slowly. Though there have been some significant achievements. In 2019, Google used a 54 quantum computer named Sycamore to do an incredibly complex if useless simulation in under 4 minutes. Running a quantum random number generator a million times to sample the likelihood of different results. Sycamore works very differently from the quantum computer that IBM built to demonstrate Shor's algorithm. Sycamore was the one that people were talking about that was Google's quantum computer, right? Sycamore takes superconducting circuits and cools them to such low temperatures that the electrical current starts to behave like a quantum mechanical system. At present, this is one of the leading methods for building a quantum computer alongside trapping ions and electric fields where so they can make a quantum computer differently. Well, that's pretty important. Different energy levels similarly represent different cubit states. Sycamore was a major breakthrough, though many engineers disagree exactly how major. Google said it was the first demonstration of so-called quantum advantage, achieving a task that would have been impossible for a classical computer. Wow. Wow. This is important, chat. So, there's different mechanisms to pull it off and some may be more effective than others, right? So the difference here is that if they can do it with superconductive especially room temperature superconductive microchips there might be completely different ways in order to entangle the cubits different than old str. So think of it like you're getting better at a strategy. So, let's say you like to play a game, right? The first time you play the game, you're going to be not very good at it and now you come up with a better strategy for it and now you get a lot better, right? Same thing is seemingly happening with the development of quantum computers and how they function. So, we might have to look in the sycamore here as well. It said the world's best supercomputer would have needed 10,000 years to do the same task. IBM has disputed that claim. At least for now, serious quantum

we might have to look in the sycamore here as well. It said the world's best supercomputer would have needed 10,000 years to do the same task. IBM has disputed that claim. At least for now, serious quantum computers are a ways off, guys. Okay. So, if you don't think that we've got the mil if the mil the military has some of these things, right? This is why they're hiding. I they might be suppressing this technology as well. This and they might have been suppressing it for 20 years, right? And it's getting out. Um, and yeah, I mean, it's God, the amount of technology has been suppressed is scary, man. It's scary. This is just the stuff we know about, right? Sycamore is a transmon superconducting quantum processor created by Google's artificial intelligence division. It has 53 cubits. So remember each cubit is two possibilities and that they increase exponentially. So if we pull up our calculator, the amount that it can process is two to the how do we do 53? Whatever. So, we'll just we'll just do like this. Two. Where's my carrot guy? To the 53. The number is so large. It has 15 extra integers here. 15 extra integers. So, just keep in mind it only takes nine 10 integers to get to a billion. So, uh, five more beyond a billion. We're talking like quadrillions of inte of possibilities here, right? I don't even know exactly how many numbers, but a lot. A crap ton, right? This is a huge huge number. So, I'll write it out here. Nine with 15 zeros. One, two, three, four, five, six, seven, eight, nine, 10, 11, 12, 13, 14, 15. Uh so that's thousand million billion trillion 9,000 trillions is how many this is able to pull off. I don't even know what comes after trillion guys. That's it's quadrillion. Nine quadrillion. It can do nine quadrillion things. So yeah, nine quadrillion possibilities. Seems like a lot of possibilities, guys. Holy crap, that's pretty damn powerful. Google's quantum computer achieve. Okay, here we go. Google's quantum computer, Psychamore, did something that's going to break your brain. Once again, it achieved quantum supremacy by performing a calculation within a few seconds that Frontier, the most powerful supercomputer in the world, would take 47 years to complete. This is something similar to what Google did in 2019 with 53 cubits. But this time, Psychomore performed the task with 70 cubits. 70. How is this not getting talked about more, chat? So, we just went from nine quadrillion and they just added 17 more cubits. So, you have to uh square it another I don't know how many times. This is going to get absurd, right? 17 more times. So, we're definitely getting to the point here where we can probabilistically determine like crazy stuff, right? the quantum equivalents of classical bits that can represent one or zero or like with just a quadrillion I'm sure we can crack any encryption right now we're getting to the point where like we can teleport information of uh a 777200 and this is just the stuff we know about both at the same time potentially allowing for certain calculations to be performed at astonishing speeds. Quantum computers are still in their early stages of development, but the progress that Google has made with Psychomore is a major step forward for quantum computing. It shows that these machines are becoming more powerful and capable and it suggests that they could soon be used. Yo, people are not building this for no reason, right? People are not building this for no reason. Like this is people are building this for a reason, chat. Um, and and that's the crazy part is like we have to think about like people are not spending billions of dollars on these for nothing, right? They're doing something with this to solve real world problems. To get regular technological updates, follow the secrets of the Wow. Um, okay. Well, I'm not watching something that's an hour long. Let's look at this. quantum supremacy using a programmable superconducting processor. This is what their thing, right? Let's just read the abstract. We're not going to go into all this. The promise of quantum computers is that a certain comp computational task may be executed exponentially faster on a quantum processor than on a classical processor. A fundamental challenge is to build a highfidelity processor capable of running quantum algorithms in an exponentially large computational space. Remember, exponentially. It's getting exponentially larger. Here we report the usage of a processor with a programmable superconducting cubits to create quantum states on 53 cubits corresponding to a computational space state space dimension of 2 to the 56. Remember that was now about 9 quadrillion. We we did the math. We did the math guys. Uh measurements from repeated experiments sample the resulting probability distribution which we verify using classical simulations. Our Sycamore processor takes about 200 seconds to sample one instance instant of a quantum circuit a million times. Our benchmarks currently indicate that the equivalent task for a state-of-the-art classical supercomput

probability distribution which we verify using classical simulations. Our Sycamore processor takes about 200 seconds to sample one instance instant of a quantum circuit a million times. Our benchmarks currently indicate that the equivalent task for a state-of-the-art classical supercomput would take approximately 10,000 years. 10,000 years for a supercomput it can do in 200 seconds. Whoa. This is a dramatic increase in speed compared to all known classical algorithms. Is it experimental realization of quantum supremacy for the specified computational task heralding a much anticipated computer paradigm? Guys, you know when I begin to take a paper seriously? When it doesn't just put one source, but they put six sources. Seven sources on this one just just in case people want to be like, "No, they're faking it." Like, "Nah, bro. I got seven sources. Whoa. Okay, you have my attention now. Okay, let's see what DWave has got going on here, chat. 5,000 cubit fifth generation quantum analer. I don't know how to say that correctly, but we're gonna call it analer because it says anal sounds funny and I like it. Is this okay? Los Alamos National Laboratory. Well, guys, have you guys ever heard of anybody else that worked at uh this Los Alamos National Laboratory chat? H interesting. I can't think of anyone. Canadian purveyor of quantum computers D-Wave systems announced their fifth generation 5,000 cubit system late Tuesday at the company's annual user conference cubits in Newport, Rhode Island. The new quantum computer named Advantage will be made available for onremise deployments and D-Waves Leap Cloud Service in the mid 2020s. The advantage design incorporates D-Wave's new Pegasus topology which was announced in February. The new topology design provides higher connectivity, influencing how problems are solved. Higher connectivity allows for more complex problems to be solved using the same number of cubits. With higher connectivity, less cubits are needed to solve problems. So, the military is going to have some crazy chat. If some random Canadian company's got a 5,000 cubit processor and Google's got ones that can do nine quadrillion, uh, the military has got ones that can teleport objects. I would guarantee it. Um, how do we find out about the the military's uh quantum computers? That's what I want to know next. I want to know what kind of quantum computers the military has. And it's going to be classified. So, they're going to have room temperature superconductive quantum computers that are probably going to make these look like little child's toys, right? This is scary. This is almost like the show Westworld where there's like this supercomputer in Westworld that's like predicting that what everyone's going to do with their life and if anyone deviates from it, it just sets a system in motion that's going to just destroy their lives. Wow. Uh how do we find out more information about this? This was one year ago. uh and then in a way that is not better and better number of cubits cubits will be built in an entirely it doesn't always work out that well but we'll take it on the yaxis simulation results is residual energy quantum so for context the lower lower on that plot less residual energy better performance in an optimization context and on the x-axis in that plot plot is the annealing time. The amount of time we allowing analing algorithm to unfold and they reflect themselves. They manifest informance in cubit system of a seems very similar to optical phase uh phase conjugation as well noise performance extract. Guys, this is the future reduction in primary approaches to quantum comput quantum computer and let me thought that this why we're doing this. So quantum and kneeling optimism are different for computing that end up being fairly complimementary to each other and how they play into it's kind of weird Los Alamos is the place where they were figuring this out same place was at let's look at the road map uh built on top of a superconducting validate air correction cubit within demonstrate logical cubit manipulation fabrication stack that allows scalable task component all of the control circuitry, embedded control circuitry, onchip technology that has allowed us to build a scalable technology uh with the kneeling based quantum computers and and and since the time of our announcement, we've made a number of uh steps along this path. uh we've fabricated uh and and started testing uh our our gate model cubit, our first generation gate model cubit again within an integrated circuit fabrication stack and are performing one and two cubit uh gates with that. Uh we've demonstrated uh a unique approach uh which I think is cool. Um okay, let's now that we understand a little bit more about these guys, I think we've now just armed ourselves with the base knowledge that we need to be successful here. Um, let's close this. Paradox free time travel is theoretically possible. Uh, this is the one I want to look at. Quantum computing breakthrough. Stable cubits at room temperature. Wow, this makes a lot more sense. Chat, I'm glad we learned about the quantum computers before we read this. Researchers have achieved quantum coherence at room temperature by embedding a lightabsorbing chromospore within a metal organic framework. This breakthrough facilitating the maintenance of a quantum system state without external interference marks a

we learned about the quantum computers before we read this. Researchers have achieved quantum coherence at room temperature by embedding a lightabsorbing chromospore within a metal organic framework. This breakthrough facilitating the maintenance of a quantum system state without external interference marks a significant advancement for quantum computers and sensing technologies. Researchers observed the quantum coherence of a quintet state with four electron spins in molecular systems for the first time at room temperature. In a study published in science advances, a group of researchers led by associate professor Nouhiu Yanai from uh Kyushu University faculty of engineering in collaboration with associate professor uh Koshi Miata from Kyushu University and professor uh Ya uh Yasuhiro uh Kabori of Kobe University. J these are Japanese people. I can tell Japanese names. uh they've achieved quantum coherence at room temperature, the ability of a quantum system to maintain a well- definfined state over time without getting affected by surrounding disturbances. Now, why is this important? We just learned that one of the big issues is decoherence, which uh leads to situations where we need more error correction. So, if you can get rid of the error correction problem, now you can make your quantum computer way more efficient, right? Pretty amazing. This breakthrough was made possible by embedding chromospore, a die molecule that absorbs light and emits color in a metal organic framework or MOF. A nanoporous crystalline metal composed of metal ions and organic lians lians I don't know advancing quantum technology their f their findings mark a crucial advancement for quantum computing and sensing technologies. While quantum computing is positioned as the next major advancement for quantum computing technology, quantum sensing is a sensing technology that utilizes the cubits mechanical properties of cubits. Okay. How long is this? Not too long. Here we go. We'll finish it up. So, let's look at this image here. Observing quantum coherence of high spin states at room temperature. Just trying to see quantum coherence of the 5T state has been observed only at cryogenic temperatures. They were able to maintain the quantum coherence of the quintet state for more than 100 nanconds. This seems like a pretty damn big advancement, everybody. Oh yeah, we're definitely being monitored. If we if we weren't being monitored by the government, I would feel like our government's kind of failing, honestly. Hell, man. Putin will be Putin would definitely be uh watching us, especially after I just outed his secret military base, Area, fake Area 51, Russia Area 51, whatever you want to call it. Um, by leveraging the extremely sensitive nature of quantum entangled states to envir environmental noise, quantum sensing technology is expected to enable sensing with a higher resolution and sensitivity compared to traditional techniques. However, so far it's been challenging to entangle four electrons and make them respond to external molecules that is achieve quantum sensing using nanoporous MOF. Notably, chromospores can be used to excite electrons with a desirable electron spins at room temperature through a process called singit fu singlet fusion or fishision. However, at room temperature causes the quantum information stored in the cubits to lose quantum superposition entanglement. As a result, it is only usually possible to achieve quantum coherence at liquid nitrogen level temperatures. Now guys, liquid nitrogen, what do we use liquid nitrogen for? We use it to achieve superconductivity and cool things down. Now, you can already see if you're thinking like I'm thinking, you can see how room temperature superconductive metamaterials would change everything about this. The moment we have room temperature superconductive meta metamaterials, hello quantum computers. Say goodbye to your old computer chat. Computers are about to get millions and millions of times, literally infinitely more powerful, infinitely more powerful. Um, it's going to be a new revolution that will come into play with computing. And why is this exciting to me? Actually, I'm going to save this to the end. Let's read through the rest of it. To suppress the molecule uh molecular motion and achieve room temperature quantum coherence, the researchers introduced a chromosphere based on pentacine uh in a whatever this okay. Um the MOF structure facilitated enough motion in the pentacine units to allow the electrons to transition from the triplet state to the quint quintet state while also sufficiently suppressing motion at room temperature to maintain quantum coherence of the quintet multi-exitron state. Upon photoexiting electrons with microwave pulses, the researchers could observe the quantum coherence of the state for over 100 nonds at room temperature. So this is basically their first test, right? While the coherence was observed for only nanconds, the findings will pave the way for designing materials for the generation of multicubits at room temperatures. It will be possible to generate quintet multiexitron states cubits more effectively in the future by searching for gas molecules that can induce more such suppressed motions and by developing suitable MOF structures. This can open the door to room temperature molecular quantum computing based on multiple quantum gate control and quantum sensing of various target compounds. Wow, that's pretty amazing. Um, so before we go into our final moment of Zen discussing this, let's take a look at what this thing now about quantums has to do with here. Yeah, this is going to happen in our lifetimes if you are young

Um, so before we go into our final moment of Zen discussing this, let's take a look at what this thing now about quantums has to do with here. Yeah, this is going to happen in our lifetimes if you are young enough. Absolutely. I would say that we're probably looking at 10 to 20 years for this, probably closer to 10 years. But the way things are happening and evolving so fastly with AI, um, it really is just a matter of when room temperature superconductive metamaterials become public knowledge. Once they do, things are going to just uh leap and bounds, grow out of control. If you ever wonder what quantum computers do, you're not alone. Um, let's see. competition. 20 finalists will share a $1 million prize in advance to finals. Google's invested 866 million. No, they've invested millions. Um, uncover secrets about dark matter. Okay. Okay. This is just some dumb competition. Okay. Let's go to our end discussion. Okay. So, if you are uh my age or older, and I'm 41 years old, then you remember that in the '9s um and even through the early 2000s, computers were just booming, right? You always wanted the next computer because they were just getting more and more and more powerful, right? And if you're a gamer like I was, you really wanted the next computer because every upgrade made that generation of games and older run faster. And there was a lot of times where if your computer wasn't good enough, your computer was like a year or two old, you couldn't even play certain games. Like they didn't meet the minimum requirements you would see on the side of the box. Nowadays, that's not really an issue anymore. You don't have that anymore. Nowadays, basically every game can be played on most rigs that you would have as long as it was produced in the last five years or so, right? And so things have started to like teeter off a little bit, right? They they increase and then they teeter off. What will happen with quantum computers is we're going to have that happen again where it's going to I mean we went from 53 cubits which can do nine quadrillion calculations to 70 cubits which is multiply it 17 times more se multiply by two 17 times again and then all the way up to things like 5,000 where the numbers are just like at that point we can calculate probably every atom in every single person inside of an airplane, maybe even more than that, right? And that's not even going to be the heights of it, right? It's just going to keep going up. And this is where we talk about linear versus um exponential. So, if anyone doesn't know what that means, linear growth would be a line growth, right? Straight straight line. Exponential growth is going to be a curve where it just achieves a singularity where you are just this is what allows for our quantum computers to achieve um processing capabilities that seem like they would be magical as well as for those energy densities like remember when the orbs are converging on the plane. This is where your energy densities are achieving they're going up not linearly they're going up exponentially and it gets to a point where you can achieve essentially an infinite amount of power. This is why Salvatore Pius's patents talk about achieving energy densities so powerful that they can destroy a planet or asteroid, right? And he's at that point he's being koi because he doesn't want to let everyone know the doom and gloom, which is they can achieve energy densities of anything we need. We can achieve energy densities of destroying the sun, energy densities that can potentially create a big bang, right? Maybe we created our own big bang. Maybe not us, but maybe our our ancestors did, right? Um cloud storage will be infinite. That's a very interesting aspect. I think that yeah probably actually because you could store the information in real time, right? You can probably make hard drives that have basically infinite storage space. Pretty scary, right? You don't even need storage space because the way the quantum computer works, it can just store every possible state at once, right? That's wild. I think you should have invested in Nvidia six months ago. Uh if you look at Nvidia now, they're worth uh so if you guys don't know how corporate calculations work, I'm going to do this will be a quick quick explanation for how stock markets work. Okay, so the value of a company is calculated several ways. Um, and they must be equivalent. Okay? If there's not equivalency, then a a stock is either overvalued or undervalued. So, the way you determine how much a a stock is worth is by all of their profits in perpetuity. What does that mean? All the profits they make every year for now into infinity. And there's a specific calculation that you can use to estimate that based on their current profits. And then obviously there's speculation that comes into play. How much are they going to grow, right? And so there's a speculative approach that allows the stock to go higher than what their books show you from a profit level. This is why companies that don't make a profit still have a positive stock value, right? Same way where Tesla didn't used to make a profit and therefore uh you know the the

go higher than what their books show you from a profit level. This is why companies that don't make a profit still have a positive stock value, right? Same way where Tesla didn't used to make a profit and therefore uh you know the the value of the Tesla stock was much higher than what people thought it should be worth because their profits in perpetuity didn't make a lot of sense. Right now the market cap market cap is equivalent to the value of the company and the way the other way you can calculate it is the current stock price times the total number of outstanding shares. This is how it always works. So the market cap what you see down here, this company is supposedly worth $2 trillion. $2.14 trillion. Just wrap your brain around that. Supposedly the profits in perpetuity are equivalent to $2 trillion. At least the investors who have invested think that they are. Right? That is more money than a lot of countries. Uh that is a huge huge company. This is a large market cap company. Um stuff that would be like medium market cap would be stuff that's like I think 20 to 100 billion. So this is a large market cap. The total number of shares that are out there times 857 is equal to 2.14 trillion. So you can just reverse the math right here and you can do 2.14 trillion divided by 857.74 and that will tell you how many shares there are. This is how many shares that the company has. Uh two billion two and a half billion shares is how many shares that Nvidia has. And that's always going to come out that way. The price of the stock times the number of shares always equals the market cap. Okay, now let's look at NXPI. Okay, another this is another one. This is the one that Frecale was sold to later on. Um I sort of regret investing in them as opposed to N to Nvidia because Nvidia most likely has some kind of arrangement with the government or something like that, right? Um but NXPI is a much smaller market cap right so their market cap is $65 billion same calculation you can take 65 billion uh okay so they have 256 million shares okay uh but both of them if you look at them over the last six months That's a lot of growth. They were down at 172 at one point. Now they're at 253. That is a huge amount of growth just since November. That's not even 6 months, right? Uh and now if you look at a 5year, I mean look at the fiveyear. They went from $200 now up to 256. And this is just they only do commercial stuff now. They're not selling to the government anymore anymore. As far as I know, the ones that I would be interested in it on um are the ones that are selling to the government because those are the ones who are secretly producing room temperature superconductive microchips. Now look at the fiveyear of Nvidia. Whoa. 2019 Nvidia is worth $35. $40 and now they're worth $800. Something's going on here, right? This growth right here is astronomical. $120 in 2022, now $800. You would have made your money back eight times. There's something going on there, chat. Okay. Okay, guys. Um, so I think we learned a little bit about quantum computers today. If you guys find out anything else, uh, actually, first of all, make sure you hit that like and subscribe button, everybody, if you like the the stream tonight. But I know a lot of you are already subscribers. Um, if you guys find out anything else about quantum computers, feel free to put them in the comments or if you guys are in the Discord, I will post a link to the Discord right now. We'll let uh another 10 people join that want to join the Discord. And uh we've got just some a quick announcement. I've got some hard truths podcast guests getting lined up. Uh, should be some pretty good stuff and I'm hoping to get some more as well as I, uh, you know, spend more time on the podcast and and upgrading that kind of stuff, guys. So, uh, feel free to join our Discord. Please, uh, do a verification when you come in. Introduce yourself. You don't have to tell us your real name, but tell us why you want to join, etc. And feel free to share any quantum computing information that you find into the Discord as well. Uh, thank you guys very much tonight. Uh, I'll go ahead and play out uh one more video just because there's a little bit of a delay on the stream and we will go ahead and close. This will be your moment of zen. The last sliver of hope. Well, that was fun. Have a great night, everybody. Peace.