Three Telescopes Discover HUGE Blackholes. 😲🤔🥰😍😇😈⭐️🌟🌠🌌🪐🕳

The recording has started. Well, now. Always remember, Super Dave Bistula, the tall, white, gothic, vampire alien. Coming to you from, uh, Tim Hortons. The one, you know, Curie LaBelle and, uh, Carrefour. You know, the one with I.G.Extra and Banque Nacional. National Bank of Canada. Here in the area of, uh, Chamonix Laval. Where we're bordering. We're going close to St. Robert's. Super Dave Bistula of Laval, Quebec, Canada. So, according to this, uh, article in Space.com. Space. Final Frontier. Um, Roman, Euclid, and, um, the J.S., uh, the James Webb, JW, James Webb Telescope. They've discovered super black holes. I've seen them in my travels when I came to Earth. As I was slowly coming to Earth. And they're massive. Huge. I don't know what else to say. You see, even if our universe is finite. And it's part of a multiverse. Um, it's huge is not even the word. Whoops. Who knows how many billions of light years our, uh, our galaxy is. Let alone the entire universe. Maybe it is a circle. Maybe it's round. Or maybe it's flat. We're not sure. I'm not gonna say anything. I don't, uh, want to in this debate. Neither does my digital host, David, who's gonna read from Space.com. At any rate, you'll probably find this fascinating. David? Yeah, SuperDavid, you've probably showed me a couple of things. You've taken me up a couple of times. Jesus Christ. I don't know what to say. So, the only thing I'm gonna say is I'm gonna reduce myself to a little blip and read from Space.com. So here goes nothing. So, we have some notifications while we're at it. Menu. Camera. Hi there. And you'll probably like the design of, uh, our, uh, so Space.com. How the James Webb Euclid, which is a European telescope. Roman. It's for something. You'll see what it is. Space telescopes could team up to hunt down supermassive black holes from the dawn of time. And you'll see that some of these have not been made by fallen stars, but things that formed fallen stars. Let's put on our reading glasses. We were, by Robert Leah, or Robert Lee. Did I pronounce that? Published, uh, September 5th, 2025. We were amazed by the fact that these observatories can detect about 100 black holes. Just 215 million years after the Big Bang. Big Bang? Or was it creation? Because, uh, there's a theory, maybe some of it might be pseudoscience, about Big Bang, compared to religion. I'm not going to get into it. But I'm not an atheist. But you're talking to somebody who's not an atheist. That's for sure. Something had to create it. Or something had to create the Big Bang. It doesn't just happen spontaneously by itself. But I'm not here to, uh, to, uh, as your decision to make. Just letting you know what I believe. In small, in as small a way as possible. Who knows? Such detections would greatly help to constrain black hole formation models and provide an unprecedented view of the early universe. Let's see. I guess these are the three telescopes and there's the, uh, black hole. Kind of looks like a gateway to something. I don't know if it's leading to heaven or to, uh, new research suggests that three space telescopes could form a powerful triad capable of searching from supermassive black holes earlier in the, earlier in the history of, uh, the cosmos than ever detected before. So early black holes that turned into super massive black holes. If the James Webb Space Telescope, JWST, JWST, the Euclid telescope and NASA's upcoming Nancy Grace Roman Space Telescope, Roman, can detect black holes with masses of, uh, masses 20 or, or groups of masses millions or billions of times higher, higher than that of the sun when the universe was less than 270 and 70 million years old. It would change our view of cosmic evolution. Such a detection would, uh, could also solve a dilemma that one of these, uh, telescopes revealed to astronomers. Probably there was a civilization before Adam. Could have been, um, Galileo before he fell? I'm just saying. You know who Hillel is. Ben Shekar. You know, Lucifer. Until we've gone a little, uh, until we've gone too arrogant. Okay. So, since it began operations in 2022, the JWST has been detecting super massive black holes that existed, that exist when universe, uh, when the universe was less than 1 billion years old with the most ancient example being the black hole Jade's GS Z14 0. Now, Jade's dash GS dash Z14 dash 0. This is problematic because using the models that existed prior to 2022, super massive black holes should take at least 1 billion years to reach the super massive status via mergers and the conceptions of matter. This has led to the proposal of alternative models of black holes that could allow these cosmic titans to get a head start in growth terms. Okay, so we're gonna see how they formed. But this could still this could still all be theory because we're not sure. There's still new things that have to be discovered. When you follow the science, there's always a question afterwards. Wait a minute. And there's something that disrupts your theory. Just remember that for COVID. Follow the science? Don't. Don't virtue signal. This proves it right here. Just wanted to put that in sometimes. Supermassive black holes forming at later times have more time to grow through accretion and mergers. And these processes erase their birth signatures. Researcher author Mohammed A. Latif Latif of the United Arab Emirates University told space.com Supermassive black holes forming at such an early age suggests that they were born that they were born massive. One possible scenario that would allow supermassive black holes to grow so large so rapidly suggests that instead of early black holes forming when the first generation of massive stars died, they formed directly when vast overdense patches of cosmic gas and dust collapsed. That would be it. Before they formed stars, they just... And then it becomes the biggest vacuum possible. But where does it lead to? Models of BH formation suggest that under certain conditions such as dense cold streams of gas, halo mergers or intense ultraviolet radiation bombardment, gas clouds can catastrophically collapse into massive black holes without forming normal stars, Latif explains. Interesting. Fascinating. This model is known as the direct collapse scenario, and massive black holes are born with masses of 10,000 to 100,000 times the mass of our sun. Holy ----. So our sun is absolutely far and absolutely nothing, and that is pretty well massive. At least compared to most of the planets in our solar system. The only planet that could almost match it is Jupiter, or rather Zeus. Hmm. But how did Helios get so big? I think that's a bad way to put it. That's a supermassive black hole forming over there. By cutting out stellar middle man, this direct collapse scenario would see black holes be formed before the first stars die, vastly cutting the time needed to grow. Additionally, it removes the mass restrictions on these first black holes, restrictions that were imposed on other theories by the fact that black holes can only be as massive as the core of the most massive stars. Hmm. They were about to grow into huge stars or huge suns, but whoosh! They contracted on themselves. This means that the merger process that leads to the creation of super massive black holes could begin with so-called heavy-seed black holes caused by directly by collapsing gas and dust. More massive than any stellar mass of black holes created by dying stars could ever be. Because they were probably going to be huge stars. Bigger than our sun, if they didn't collapse. Direct collapse black holes at earlier times can further grow by accreting the material from their surroundings. While black holes forming at later times do not have much fuel to grow, Latif explains. Latif added. However, if this direct collapse scenario is right, Latif and co-author Daniel Whelan of the University of Portsmouth suggest that the direct collapse of gas and dust could have birthed direct collapse black holes as early as 170 to 180 million years after the Big Bang. Big Bang? It's the chicken or the egg. Thus, we should be able to find the supermassive black holes even earlier than the 290 million years after the Big Bang. In other words, at redshifts of Z equals 15 or greater. Okay, I would have to learn either chemistry or physics for that. I know some chemistry and some physics, but not a whole lot to figure that one out. But anyways, let's just move on. Detecting a supermassive black hole at Z equals 15 would tell us about the origin of supermassive black holes, Latif explains. It would mean that the black holes are born massive with masses mentioned above and would almost rule out their stellar origin when formed from stars. Okay. I guess the big chicken was born before the egg. What can I say? How Roman and Euclid could point the JWST in the right direction. So if those early direct collapsed black holes are out there, why hasn't the JWST spotted them? It certainly isn't because it lacks the observing power. Maybe the $10 billion space telescope just needs help from space telescopes with a wider focus. Hmm. I guess we need three instead of one. In principle, JWST can observe such black holes, but the area of the sky JWST is probing much smaller than the upcoming Roman telescope and Euclid, Latif said. Their synergy is key to studying the supermassive black holes at early times. Roman and Euclid have fields of view that are 100 times wider than that of the JWST and therefore can detect more early black holes. Hmm. I guess the JWST is becoming a little bit obsolete unless they improve upon it. The high resolution of the JWST can help detailed structures of black hole host galaxies and confirm their presence by performing spectroscopy. Oh boy! Such observations will give us a detailed picture of how and under what conditions black holes form and grow. Imagine falling into those. You'd probably be gone to God knows where. The three telescopes are all capable of observing the universe in infrared wavelengths of light, meaning they complement each other in that respect too. Oh, okay. So they have to work together. Basically as a trio. The team performs simulations of synergy between the JWST, Euclid and Roman and was impressed by the effectiveness of this telescope triple threat. Real. Amazing. Fascinating. As Mr. Spock would have said. We were amazed by the fact that these observatories can detect about 100 black holes in just 250 million years after the Big Bang. Such detection would greatly help to constrain black hole formation models and provide an unprecedented view of an early universe. Latif explained that in the near future he and Waylon intend to run simulations that track the growth history of the early direct collapsed black holes after their birth. Fascinating. I hope they do. They're gonna have to do a lot of calculations for that. Having such detailed growth history, we can make better predictions for Roman, Euclid and JWST now, including now including how massive these black holes can become and how many of them can be detected with the upcoming surveys Latif concluded. The team's research is available on the website of the University of Portsmouth. Okay, whatever. I guess that's it. So we'll just close this. And we'll close that. Oh, we'll just close this. And there you have it in a nutshell. What can I say? Those super massive black holes. If you thought the regular black hole was something, these ones are scary. Are they doorways to other dimensions? And what kind of dimension would it be? You know what I'm talking about. But what if it's something else altogether? I guess if it's creation in Bali made it that way. I wonder if it was early civilizations back then. But then again, I've heard that early civilization pre-Adamic. What can I say? Anyways, that's it. Super Dave. Conclude. Close it off. Even our advanced civilization we're still confused. We're trying to make calculations as well. Do not forget this universe. Massive. Massive. Massive. So if you see a super massive black hole that's been around since the early days of the universe more than a billion years ago. What can I say? Oops. Anyways, at this point I'll bid you adieu. Au revoir. Adios. Hasta mañana. Hasta luego. Arrivederci. Shalom. Sayonara. Sayonara. Au revoir. Adios. Au revoir. Muchas gracias. The only thing to say is may the force be with you or may the schwarz be with you. In something so massive it turns me to you know. Or, live long and prosper. That's it. Or, good luck. If you saw Star Trek in a movie, you'd understand. Anyways, that's it. Thank you very much.