Demonstrations of quantum advantage relying on sampling hard-to-compute probability distributions are plagued by difficulties in efficiently confirming the correctness of their output, which is known ...

Ever wonder if your laptop might be less real than you are? In this episode, dive headfirst into a quantum rabbit hole where Schrödinger’s equation isn’t just homework—it’s your passport to a mind-bending journey where quantum computers could literally break reality. We unpack quantum computing from the ground up — starting with the elegant math of Schrödinger’s equation, moving through the groundbreaking visions of Paul Benioff, Yuri Manin, and Richard Feynman, and arriving at today’s quantum machines that defy the limits of classical computing. Explore the wild worlds of superposition & entanglement, discover what makes quantum advantage more than sci-fi hype, and face the chilling reality of Shor’s algorithm threatening modern cryptography. We’ll also talk about the impossible fragility of a qubit, why error correction in quantum computing is your uphill battle, and why the quantum era isn’t replacing your PC—it’s your cosmic sidekick. Then we tilt our gaze to the stars: could the entire universe be a quantum computer? We’ll break down a real wormhole simulation on Google’s Sycamore, showing how quantum mechanics opens doors not just to new tech, but to new philosophies about reality itself. Why it matters—now: Because as the universe’s complexity swells, our only hope is simplification—yet quantum computing often resists that very urge. Loved this whirlwind through quantum reality? Subscribe, share with your curious friends, and drop a 5-star review—because the only thing more powerful than a qubit is you spreading quantum wonder.

IBM has unveiled its Nighthawk and Loon quantum processors, accelerating its roadmap to achieve quantum advantage by 2026 and a fault-tolerant system by 2029.

A few years back, Google made waves when it claimed that some of its hardware had achieved quantum supremacy, performing operations that would be effectively impossible to simulate on a classical computer....

A quantum computer that uses particles of light took about two dozen microseconds to complete a calculation that may take trillions of trillions of trillions of years on the world’s best supercomputers

Recently, many works have investigated the prominence of quantum games in quantum information scenarios. In this work, we successfully present a theoretical and experimental study for a quantum versio...

Quantum computers promise to outperform today's traditional computers in many areas of science, including chemistry, physics, and cryptography, but proving they will be superior has been challenging. The most well-known problem in which quantum computers are expected to have the edge, a trait physicists call "quantum advantage," involves factoring large numbers, a hard math problem that lies at the root of securing digital information.

Researchers use cryptography to gain insights into the mechanisms behind quantum speed-ups. Quantum computing is widely regarded by experts as the next major leap in computer technology. Unlike traditional...

We predict the quantum community will uncover quantum advantage by the end of 2026, but how will we know when it's arrived?

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Google claims a major breakthrough with its Quantum Echoes algorithm, achieving verifiable quantum advantage on its Willow chip 13,000x faster than a supercomputer.

The most powerful supercomputers on Earth just became obsolete. And it all happened on a single, tiny chip in a Google lab. This isn't science fiction anymore. Welcome to the dawn of a new era. This podcast unpacks Google's stunning quantum computing breakthrough, a moment that historians will mark as the true beginning of the quantum age. We dive deep into their new Willow quantum chip and the revolutionary "quantum echoes" algorithm. This isn't just another small step; it's the first-ever demonstration of verifiable quantum advantage. What does that mean? Imagine a calculation that would take the world's fastest supercomputer years to complete. Google's quantum system did it 13,000 times faster—in about half an hour. But here's the game-changer that makes this different from all past claims: they can prove the answer is right by checking it against real-world physical experiments. We'll explain how this new "quantum scope" can measure the faintest signals in the universe and why it's set to revolutionize everything from drug discovery to material science. This isn't about faster computers for video games; it's about solving the unsolvable problems of humanity. And the best part? Google says this isn't decades away. They're predicting real-world applications within five years. The quantum age is here. To understand the future, you need to understand this breakthrough. Subscribe now and share this with anyone who wants a glimpse of the world we're about to live in. Be the first to know what's coming.

Forscher fanden heraus, dass womöglich keine Fehlerkorrektur nötig ist, um mit einem Quantencomputer einen klassischen Supercomputer zu übertreffen.