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What To Know About Quantum Computing | Into the Supernatural with Josh Peck
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Back in the 1960s, the electronic calculator kicked off a tech revolution that's been growing ever since. Think of it as the starting point for computers as we know them today. Over the years, especially recently, we've seen some jaw dropping advances in how we handle information. Stuff that used to sound like sci fi, like super smart machines or tiny devices that do big things, has actually become true. Our gadgets have shrunk in size, but have grown in what they can do. And the old school computers we're used to have gotten way faster and more powerful due to something known as Moore's Law. Moore's Law is the observation that the number of transistors on a microchip doubles roughly every two years, leading to exponential increases in computing power and efficiency. This happens because engineers shrink transistor sizes, allowing more to fit on a chip, improving performance and reducing costs. The trend has driven technological advancements since the 1960s, though challenges like physical limits and heat dissipation sometimes can slow progress. However, as we will see, many of these limits are being overcome. Now we're going to step into something even bigger called quantum computing. This isn't just an upgrade to the computers that we've had, it's a whole new landscape. Imagine it like switching from a horse and buggy to a rocket ship. Quantum computing uses some mind bending science. Don't worry, we're not going to get too lost in the details. It's about tiny particles acting weird in super fast ways. And this is used to process information at speeds we could barely dream of before. Experts say it's going to turbocharge things like artificial intelligence. Just think of computers that act almost human. And data analytics, which is just a fancy way of saying sorting through huge piles of information to find patterns. For us who follow Bible prophecy, this might ring bells about how knowledge is supposed to explode in the end times, like in Daniel 12:4, where it says people will run to and fro and knowledge will increase. To be specific, Daniel 12:4 states, but thou, O Daniel, shut up the words and seal the book. Even to the time of the end, many shall run to and fro, and knowledge shall be increased. This prophecy suggests that in the time of the end there will be a rapid increase in travel and knowledge. With the sealed truths of Daniel's vision becoming clearer today, this could easily be fulfilled through the unprecedented global connectivity with billions traveling via modern transportation and the explosion of information through the Internet and artificial intelligence, aligning with the doubling of computational power described in Moore's Law. This surge in knowledge will likely be the catalyst to fulfill Revelation 13:16 17 during the Tribulation, where a global system enables control over commerce, requiring widespread data and communication networks evident in today's digital economy. Additionally, the running to and fro sounds similar to Amos 8:11:12 which states, Behold the days come, saith the Lord God, that I will send a famine in the land, not a famine of bread, nor a thirst for water, but of hearing the words of the lord. And they shall wander from sea to sea, and from north, even to the east. They shall run to and fro and seek the word of the Lord, and shall not find it. This is depicting a frantic search for truth from the Lord. Some say this was fulfilled in the time between the Old and New Testaments, while others say this might be looking forward to the last days, possibly reflected in our era's quest for meaning amid information overload, suggesting these prophecies converge in a time of technological and societal upheaval. Now, whether Amos 8:11 through:12 connects directly with Daniel 12:4 or not, quantum computing could be part of that upsurge in knowledge, solving problems so tough that they've stumped us forever and pushing us into the future faster than we ever thought possible. Quantum computing sounds mysterious, and honestly, it kind of is. It's tied to something called subatomic physics, which is all about how things work at the tiniest level, like atoms, the building blocks of everything. Now, unlike regular computers that use simple on off switches called bits, which are just ones and zeros, quantum computing uses something called qubits. These qubits are special because they can be a 1 or a 0, or even both at the same time. That's thanks to a weird quantum idea called superposition. Picture it like spinning a coin in the air. It's heads and tails all at once until it lands. Now here's where it gets even weirder. Qubits can also be connected in a way called quantum entanglement. That means if you change one qubit, another one, even if it's far away, can instantly change too, like they're linked by some invisible thread. It's not magic, just super strange science. So instead of the plain old bits that we're used to, quantum computers use these qubits to crunch information in ways regular computers can't touch. Gartner, a big research group, describes it as using these quirky atomic states to do calculations. Regular computers use ones and zeros like a yes or a no answer. But quantum computers with atoms that can be yes and no at the same time take it to a Whole new level. It's like the difference between a simple yes, no prophecy, and one packed with layers of meaning all happening at once. Over the last few years, scientists have made some incredible leaps in quantum research. Things that are turning what used to be science fiction dreams into real life tools. Computers are getting extremely fast and accurate, and it's all thanks to these breakthroughs. Just recently, a team at the University of Oxford pulled off something amazing. They wirelessly sent a quantum algorithm. Just think of that as a set of instructions for a computer between two separate quantum processors. Now, these weren't just any machines. They teamed up using their special quantum abilities to form a single powerhouse that could solve problems neither could crack alone. How'd they do it? It's accomplished through quantum entanglement. Quantum computing itself is getting easier to pull off too. Scientists are figuring out how to build these machines more simply and make them grow bigger and better. What they call scaling. There are two main ways they're doing this. The gate model and quantum annealing. Quantum annealers are designed for optimization problems, finding the best solution among many possibilities like minimizing costs or scheduling. They use quantum tunneling to explore solutions quickly, but are limited to specific tasks. Now, gate based quantum computers are more general purpose, using quantum gates to manipulate qubits for a wide range of calculations like cryptography or simulations. They're more versatile, but harder to scale due to error correction needs. Annealers are analog, less precise and better for niche applications. While gate based systems are digital, more flexible, but still developing for practical use. So in other words, the gate model is like building a super flexible computer with quantum gates that tweak qubits to run all kinds of calculations. Quantum annealing, on the other hand, is more like a specialist. It's great at finding the best solution to tricky problems by testing tons of options at once. Kind of like finding the lowest valley in a hilly landscape. Both methods have seen a lot of progress in the past year. Annealing systems are already out there solving real world puzzles, Kind of like optimizing delivery routes or cracking tough math problems. Gate models, which could handle even bigger tasks, are coming along faster than anyone expected. For someone watching for signs of the time, this might feel like the world's gearing up for something big. Technology racing ahead at a pace that reminds us of those ancient predictions about the end days being full of mind blowing advancements. It's amazing to think how far we've come. And it's all happening right now. Microsoft and Google are pushing the boundaries of what computers can do first up, Microsoft has rolled out something called the Majorana one processor. This is a big deal because it's a new kind of quantum chip that could speed up the arrival of super powerful computers. They're using tiny particles called Majorana particles, which are kind of like opposites of each other. Imagine twins that cancel each other out if they meet. Microsoft gets a bunch of electrons. Those are those little charged bits inside of atoms to act together like one big particle. This teamwork makes these qubits more stable and easier to scale up. And scaling up just means making more of them work together smoothly. Microsoft says one of these chips could eventually outdo every computer in the world combined. Now, meanwhile, Google's been at this quantum game for a decade and just showed off their latest chip called Willow. Their approach is different, but just as impressive. Willow uses more qubits and has gotten way better at fixing mistakes that happen during calculations. In quantum computing, errors are a big headache because qubits are super sensitive. But Google's figured out how to use extra qubits to catch and correct those slip ups. They're calling it a breakthrough because it makes their quantum systems more reliable. Google says Willow can do a specific math problem in under five minutes. While today's fastest supercomputer, like the Frontier in Tennessee, would take 10 septillion years, that's a 10 with 24 zeros after it. Both Microsoft and Google are showing us that quantum computing isn't some far off dream. It's getting closer fast. Microsoft's betting on stable scalable qubits with their Majorana trick, while Google's piling on more qubits and cracking the error problem with Willow. Either way, we're talking about machines that could solve things we can't even wrap our heads around yet, like inventing new medicines or decoding mysteries of the universe. It's a wild time to be watching this unfold. Especially if you're wondering how it all fits into God's big plan. Japan just flipped the switch on something called Rami, which they're calling the world's first hybrid quantum supercomputer. They've taken a 20 qubit quantum machine built by a company called Quantinuum and hooked it up to Fugaku, a supercomputer already ranked 6th fastest globally. This hybrid setup uses Quantinuum's special trapped ion design, where tiny charged particles are held in place to act as qubits. Combining that with Fugaku's raw speed means they can tackle problems like in physics or chemistry, that regular supercomputers would grind over for ages. Now meanwhile, Intel's working on its own quantum project, aiming to make quantum computers that can actually be mass produced. They're using silicon, the same stuff in your phone's chips, to build what they call silicon spin qubits. These are smaller and packed tighter than other types, like the superconducting qubits Google uses or the trapped ion ones from Quantinuum. Intel's focusing on three big testing tons of these qubits at once, making sure they work the same every time. That's called reproducibility. And cramming more into a tiny space or qubit density. Now, this could lead to what they call fault tolerant quantum computers. One that don't mess up so easily. Then there's IBM, which rolled out something called IBM Quantum System 2. This isn't just one machine. It's a modular setup, meaning they can keep adding pieces to make it bigger and better. Think of it like Lego blocks for quantum computing. Their latest chip has 156 qubits, and it's 50 times faster than their last one. Scientists are saying it's finally strong enough to do real practical research, like studying molecules or cracking codes. IBM's been building quantum data centers too. So this isn't just a lab toy. It's heading toward real world use. For someone watching prophecy that speed and scalability might hint at how fast things could change when this tech really takes off. Now, over at D Wave Quantum, they just tested their new Advantage 2 processor packing over 4400 qubits. That's a monster compared to Ramey's 20. They say it solves problems 25,000 times faster than their older system and gives answers five times better for precise tasks. It's shown in tests for things like optimization, which is just finding the best solution fast. Artificial intelligence and even materials science, beating their old setup in 99% of tough logic problems. D Wave's approach is to use quantum annealing. Finally, Quantinuum has a new 56 qubit trapped ion quantum computer. Now, recently, their H series hit a huge milestone. They call it the three nines, meaning their two qubit operations are 99.9% accurate across the board. So that's just a fancy way of saying that they've made their qubits extremely reliable, which is key for building quantum computers that don't flop mid calculation. That's that fault tolerance thing again. And this could open doors for practical uses like in finance or industry, where precision really matters. So there you have it. Japan's Raimi mixing quantum and supercomputing Intel's scalable silicon qubits, IBM's modular quantum leap, D Wave's 4400 qubit beast, and Quantinuum's ultra precise 56 qubit machine. So it's like the world's racing to unlock a new level of power. And for those thinking about the end times, it sure feels like we're living in a moment where knowledge is multiplying at warp speed. A company called McKinsey Co. Predicts that by 2035, quantum tech could pump up to $2 trillion into the economy. One area where quantum tech is already showing up is in something called quantum measuring and sensing. This is about using tiny particles to detect super small changes in things like time, gravity, or magnetic fields. You're already seeing it in real life. Think of navigation tools that help ships or planes find their way. Or MRI machines in hospitals that look inside your body. These quantum sensors are so sensitive, they can pick up the tiniest shifts using barely any energy or matter. Now quantum tech is set to shake up a ton of science, biology, chemistry, physics, math, you name it. But it's not just for scientists. It's going to hit industries we all care about, like healthcare, banking, communications, and even cybersecurity. It'll touch commerce, energy, and even space exploration, basically anywhere data matters, which is everywhere these days. More specifically, quantum computing could revolutionize things like material science, making stronger stuff or lasers better tools or weapons, biotechnology, you know, tweaking life itself. And genetic sequencing, which is mapping DNA very fast. It's also poised to boost communications and real time data analytics. Imagine crunching mountains of information instantly. Plus, it's going to turbocharge artificial intelligence and this thing called the metaverse, which is like a virtual world you can step into. Picture AI that thinks almost human like, or digital realms that feel real. Quantum tech's speed could make that happen sooner than we might think. But it's not all good news. Countries like the United States are getting worried because hackers might be grabbing data right now, just waiting for quantum computers to become strong enough to unlock it. Now, that same crazy speed that lets quantum computers solve tough problems fast could also be turned against us, specifically against cybersecurity. Think about it. The systems keeping our banks, power grids, and other critical stuff safe could be at risk. Today's top encryption like RSA 2048, which protects a lot of our online secrets, would take a regular computer about a billion years to crack. But a working quantum computer that could theoretically bust it Open in under two minutes. That's a scary jump, and it's got people talking about something called Q Day. That's the moment when a big, powerful quantum computer uses a special trick called Shor's algorithm to break through all the major public key systems that we rely on. Those are the digital locks based on super hard math problems like factoring huge numbers. If that happens, a lot of what we trust to stay private could suddenly be wide open. Shor's algorithm is a quantum computing method that can quickly solve a tough math problem, finding the prime factors of very large numbers. So, for example, it can figure out that 15 is made of 3 and 5. Now, on regular computers, this takes a long time for big numbers, which is why it's used to keep things like online banking secure. A quantum computer using Shor's algorithm could do this much faster, potentially breaking current encryption. It works by using quantum tricks to check many possible answers at once, finding the right ones efficiently. Basically, cryptographers who are experts who design the digital locks keeping our online world safe call Q Day the moment when a quantum computer gets powerful enough to break through the encryption we rely on every day. Encryption is like a secret code that protects things like your bank account, emails, or even government secrets when it's sent over the Internet. The systems most at risk are the ones built on math, involving huge prime numbers. Those are numbers only divisible by 1 and themselves, like 2, 3, or 17, but way bigger. The problem is those are the exact systems holding up almost all our digital communication right now. When Q day hits, it's going to be a big deal, like an earthquake shaking up the tech world. Businesses, especially Internet companies and banks, will feel it hard because their secure systems could suddenly be wide open. Governments might struggle to keep their secrets. And for regular folks like you and me, it could mean our personal privacy. Things like passwords, messages, or online shopping gets put at risk. It sounds like something out of Revelation, describing a world where everything's tracked or exposed. Because of all this, leaders in politics and tech are starting to wake up to the danger. They're realizing they need to figure out how to switch to new kinds of encryption to that quantum computers can't crack. Something called quantum resistant cryptography. But it's not a simple fix. It's a messy, complicated process to redo the whole system without everything falling apart in the meantime. It's like trying to change the locks on every door in a large city while people are still coming and going. Q Day could be one of those moments where technology takes a leap that changes how the world works, maybe even paving the way for some of those big shifts the Bible hints at in the last days. We're definitely heading into this new quantum era, and it's coming faster than most expected. It's showing up in different forms, whether it's chips like Google's Willow or hybrid setups like Japan's Raimi. And it's not stopping there. Quantum tech is going to team up with artificial intelligence, and that combo will could change everything. Imagine AI that's already really smart getting a turbo boost from quantum speed. It could solve problems or make decisions at a pace we can't even fathom. A quantum powered world could shake things up big time, maybe even in ways that tie into the chaos or control some see in end time prophecies. It's exciting, but it's also a heads up to pay attention as this tech rolls out.