2024 has been an incredible year for AI, but 2025 is set to redefine the future! From autonomous vehicles to personalized healthcare, the advancements in artificial intelligence are moving straight out of sci-fi and into our everyday lives. In this video, we’ll explore 10 groundbreaking AI predictions for 2025 that could change how we live, work, and even explore space. If you think AI has already wowed us, wait until you see what’s next. If you found this video insightful, check out these other videos on our channel: Sam Altman FINALLY Reveals The Future Of AI In “2025” • Sam Altman FINALLY Reveals The Future…
Singularity AI: Ray Kurzweil Reveals Future Tech Timeline To 2045 • Singularity AI: Ray Kurzweil Reveals… Chapters: Intro 0:00 — 0:22 Autonomous Vehicles 0:22 — 1:27 AI-Driven Customer Service 1:27 — 2:30 AI in Creative Industries 2:30 — 3:45 Personalized Healthcare 3:45 — 4:30 Smart Homes 4:30 — 5:20 AI-Powered Education 5:20 — 6:14 Environmental Monitoring 6:14 — 7:11 Advanced AI Companions 7:11 — 7:56 AI in Space Exploration 7:56 — 8:50 Workplace Automation 8:50 — 9:54
The real magic of Fermi problems lies in their imperfection. They remind us that it’s okay to be wrong — as long as you’re thoughtfully wrong. “There are no wrong answers,” says Funk. “It’s about the process.”
No single formula exists. Yet each problem invites the same approach: break it down, make realistic (or at least consistent) assumptions, and trust your critical thinking. “No Wrong Answers” is a common Fermi problem refrain because even if your math arrives at a slightly off result, you’ve shown how you reason. And that, ultimately, is the real answer.
So, the next time you’re faced with a seemingly impossible question — whether it’s How many grains of sand are on all the world’s beaches? or How long would it take to drive to the moon? — grab a napkin and a pen. Start breaking it down. Make some guesses. Do some math. You might just surprise yourself with how close you can get.
To travel between the stars requires vast amounts of fuel and energy, but as it turns out, the ocean of night in deep space is full of fuel, if you can collect it along the way.
Go to: https://brilliant.org/arvinash — you can sign up for free! And the first 200 people will get 20% off their annual membership. Enjoy!
Two new recently published, peer-reviewed scientific papers show that real warp drive designs based on real physics may be possible. They are realistic and physical, which had not been the case in the past. In a paper published in 1994, Mexican physicist Miguel Alcubierre showed theoretically that an FTL warp drive could work within the laws of physics. But it would require huge amounts of negative mass or energy. Such a thing is not known to exist. 0:00 Problem with C 2:21 General Relativity. 3:15 Alcubierre warp. 4:40 Bobrick & Martire solution. 7:15 Types of warp drives. 8:42 Spherical Warp drive. 11:32 FTL using Positive Energy. 13:14 Next steps. 14:08 Further education Brilliant.
In a recent paper published by Applied Physics, authors Alexey Bobrick and Gianni Martire, outline how a physically feasible warp drive could in principle, work, without the need for negative energy. I spoke to them. They had technical input on this video.
What Alcubierre did in his paper is figure out a shape that he believed spacetime needed to have in order for a ship to travel faster than light. Then he solved Einstein’s equation for general relativity to determine the matter and energy he would need to generate the desired curvature. It could only work with negative energy. This is mathematically consistent, but meaningless because negative mass is not known to exist. Negative mass is not the same as anti-matter. Antimatter has positive energy and mass.
Even if you could create the Alcubierre curvature, you still need to accelerate the ship to speed of light and beyond. But to go beyond C, you have to have superluminal matter, or infinite energy. This is not possible.
What Bobrick and Martire figured out is that there is more than one type of warp drive. We can get to Proxima Centauri in 10 months without going faster than light, by dilating time inside the ship. If a spaceship is constructed of a massive super dense material, close to the mass density of a neutron star, then any individuals inside this ship would experience significant time dilation. Passengers on such a ship could go to Proxima Centauri in about 9 earth years traveling at half the speed of light, but only about 10 months would have passed from their perspective. But a huge amount of mass would still be needed, on the order of about the mass of Jupiter or larger.
Theoretical warp technology exists in what we know as the Alcubierre drive. In this video, I will explain how this theoretical warp technology works and the problems that we face in developing it. You will also get to see some mathematically accurate simulations of a spaceship using an Alcubierre drive, travelling at 1,000 light years per second!
In Star Trek, Star Wars, Dune and many other sci-fi stories where space travel exists, the common question that viewers have is: how do these humans achieve faster than light travel? The term “Warp travel” and “Warp speed” were originally coined by the Star Trek franchise. It is also known by other franchises as “Jump” or “folding of space” and the engines that cause this to happen are the “warp drive” or the “hyper drive” Ultimately, the idea of bending space is embedded within all of these sci-fi stories, and with good reason.
It is impossible to travel faster than light within space. But space itself can bend, fold, move, expand at any speed or rate.
The alcubierre drive uses the principals in general relativity to bend space around a spaceship in such a way, that the space itself begins to move, carrying along anything within it. So although the spaceship is not technically moving within the space it occupies, the space around the spaceship allows motion to occur.
Hidden patterns in electric propulsion plasma beams could help ensure the success of long-term space missions. Go faster, farther, more efficiently.
That’s the goal driving spacecraft propulsion engineers like Chen Cui, a new assistant professor at the University of Virginia School of Engineering and Applied Science. Cui is exploring ways to improve electric propulsion thrusters — a key technology for future space missions.
“In order to ensure the technology remains viable for long-term missions, we need to optimize EP integration with spacecraft systems,” Cui said.
Scientists have created over a million simulated cosmic images using the power of supercomputers to anticipate the capabilities of NASA
NASA, the National Aeronautics and Space Administration, is the United States government agency responsible for the nation’s civilian space program and for aeronautics and aerospace research. Established in 1958 by the National Aeronautics and Space Act, NASA has led the U.S. in space exploration efforts, including the Apollo moon-landing missions, the Skylab space station, and the Space Shuttle program.
New Shepard is a rocket manufactured by Blue Origin for space tourism, however the newest mission will be simulating the Moon’s gravity and flying 30 payloads to test lunar related technology. \r.
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You can watch the action live here or at Space.com!
With the goal of further expanding its reach in space missions, NASA has signed an agreement with Rocket Lab USA, Inc. to integrate the Neutron rocket into the VADR program. This is a program to procure launch services at competitive prices and reduce mission requirements for spacecraft that have not yet been launched into orbit. Neutron is a medium-range launch vehicle manufactured by Rocket Lab USA that is partially reusable and powered by nine 3D-printed Archimedes engines designed to increase the efficiency and flexibility of space launches.
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Could you travel back in time through a wormhole? Neil deGrasse Tyson sits down with theoretical physicist and Nobel Laureate Kip Thorne to reflect on discovering gravitational waves with LIGO, the science in the movie Interstellar, black holes, and many more mysteries still yet to be answered.
Discover the origin story of the movie Interstellar on its 10th anniversary. Kip explains how science, not fiction, shaped the film’s narrative—from the colossal waves on Miller’s planet to the physics behind black hole time dilation. Discover the recipe for how to create a wormhole and how turning on a time machine could cause it to self-destruct. Plus, learn about the Casimir effect, exotic particles, and how LIGO manipulated vacuum fluctuations to bypass the uncertainty principle.
Neil and Kip dig into the origins of gravitational wave detection, tracing its roots to Joe Weber’s early experiments and Ray Weiss’s unpublished paper. Kip reflects on the decades of work required to make LIGO a success, the challenges of measuring distortions a fraction of a proton’s width, and the historic detection of gravitational waves in 2016 that confirmed Einstein’s predictions.
Why don’t quantum physics and the theory of relativity mix? We discuss the mysteries of quantum gravity, the paradox of black hole information loss, and Kip’s legendary bet with Stephen Hawking and John Preskell. Kip explains why backward time travel may be possible, Hawking Radiation, and theories for why information can be lost. As they explore the intersection of science and art, Kip discusses his passion for storytelling and some of his future projects, from his poetry-art collaborations to documenting the history of LIGO.
