#Quantum Computer

Google achieves quantum supremacy again! #google #quantumcomputer #quantummechanics #qubit

Follow @evolving.qc to keep up to date with quantum computing breakthroughs A normal search sends one agent through a maze. It checks one path at a time. A quantum search explores many paths at once. Through superposition, the system exists in multiple states simultaneously. #quantum #quantummechanics #quantumcomputer #qubits #quantumcomputing

Así es una computadora cuántica (Quantum Computing) presentada por IBM en el #ces2020

⚛️ What makes a quantum computer so different from a classical one? @MIT Professor Will Oliver breaks it down in under a minute in this bite-sized explainer. 🎥 Watch now and tap the link in our bio for more short educational videos. #QuantumComputing #STEM #LifelongLearning #Innovation #STEMeducation #ScienceShorts #FutureOfTech

Microsoft just made a massive breakthrough that will change technology forever. It’s called the Majorana 1, a quantum chip that’s the first of its kind in quantum computing. And what this thing can do is absolutely insane. Imagine a world where you could invent concrete that could heal itself. Or you could design a phone battery that could be charged one time, and then never run out of juice. That sounds like science fiction, but it’s not. This chip is gonna make it possible with quantum computing. Here’s how quantum computing works (ELI5). Imagine the process to invent the material for an infinite battery was actually a giant maze. If you solve the maze, you invent the formula for a new battery technology. A normal computer would have to try every single pathway in the maze, one at a time. And it could take centuries to find the right path all the way through. But a quantum computer works differently, because it can try every single path in the maze at the same time. This is essentially the difference between a bit and a qubit (the quantum bits that power quantum computers) Now this new Majorana chip has an architecture that can sustain up to 1 million qubits at the same time. That’s 1 million different pathways through the maze, every moment, until it’s solved. And what this means, is pretty incredible. When a scientist goes into a lab to create a material or a design new drug, they won’t need to run experiments. Because this chip will just give them the right answer the very first time. And It’s hard to wrap your head around what this means, but essentially, it’s new medicines, new iPhone screens that can never crack, new metals for planes that fly at supersonic speeds. Everything will change because of quantum computers. And we just entered the Quantum Era. Follow @kallaway and @kallawaytech for more videos like this! #ai #artificialintelligence #tech #technology #microsoft #quantum #computer #google #techtrends

Normal search VS Quantum search #quantumcomputing #machinelearning #quantumsearch #searchengine

Quantum computers 👾🔥 It is a multidisciplinary field comprising aspects of computer science, physics, and mathematics that utilizes quantum mechanics to solve complex problems faster than on classical computers. The field of quantum computing includes hardware research and application development. Quantum computers are able to solve certain types of problems faster than classical computers by taking advantage of quantum mechanical effects, such as superposition and quantum interference. Some applications where quantum computers can provide such a speed boost include machine learning (ML), optimization, and simulation of physical systems. Eventual use cases could be portfolio optimization in finance or the simulation of chemical systems, solving problems that are currently impossible for even the most powerful supercomputers on the market. What is the quantum computing advantage? Currently, no quantum computer can perform a useful task faster, cheaper, or more efficiently than a classical computer. Quantum advantage is the threshold where we have built a quantum system that can perform operations that the best possible classical computer cannot simulate in any kind of reasonable time. Quantum computing is a rapidly-emerging technology that harnesses the laws of quantum mechanics to solve problems too complex for classical computers. Today, IBM Quantum makes real quantum hardware — a tool scientists only began to imagine three decades ago — available to hundreds of thousands of developers. 📌Do follow Me for more Informations and edits 📌 Don't repost our video with our permission those Audio and video are under copyright projected material 📌 Disclaimer under fair Use of educational purposes #quantumcomputing #quantumphysics #quantum #physics #quantumentanglement #computer #supercomputer #ai #artificialintelligence #technology #pc #future #robotics #scifi #science #instagram #reels

When will quantum computers become mainstream? Quantum is always described as almost here… and also decades away. The problem is we’re measuring the wrong thing.… #tech #techexplained #futuretech #quantumcomputing

The future of quantum computing is closer than ever. Meet Majorana 1—the world’s first quantum processor powered by topological qubits, featuring a new state of matter. Built with breakthrough topoconductor materials, it’s a major step toward making scalable quantum computing a reality. Learn more at the link in bio. #QuantumReady

Simple way to understand quantum computing speed.

Computing as we know it uses 1’s and 0’s to complete functions. Quantum computation, however, takes on richer states that go far beyond just a simple 1 or 0. In our latest discovery, our Quantum AI researchers hit a breakthrough that significantly shifts how we understand and operate quantum computing. Just ask Yu Chen, Lead Scientist in Quantum Metrology, who breaks down the bits and bobs of an enhanced quantum computer. At the link in bio, learn more about our recent milestone.

You might have heard that quantum computers are magical uber-machines on their way to curing cancer — but the truth is more subtle than that, and even more fascinating. Misplaced hype around quantum computing often stems from a grave misunderstanding of how they function. In a new column for Quanta, computer scientist Scott Aaronson disentangles these oversimplifications. ••• 📖 Want to know more? Read "What Makes Quantum Computing So Hard to Explain?” at QuantaMagazine.org (link in bio) ••• 🎨📹 🖥️ @DVDP for Quanta Magazine