We demonstrated verifiable quantum advantage with Quantum Echoes. Running 13,000x faster than leading supercomputers, this represents a significant step toward real-world applications. Watch → https://t.co/3WJWnISWZr

Communicating with qubits is tricky, they must stay isolated to preserve their state yet still “hear” our signals. Our researchers are developing control systems that send commands and collect data without disturbing their fragile quantum states → https://t.co/VtwWo5aKSO

Congratulations to the finalists of the XPRIZE Quantum Applications competition. These 7 teams demonstrate the potential to pioneer quantum algorithms that can outperform classical computers and solve real-world problems.

Congratulations to the 2025 physics laureates! Watch the very moment John Clarke, Michel H. Devoret and John Martinis received their Nobel Prize diplomas and medals during the 2025 Nobel Prize award ceremony. #NobelPrize

In honor of today’s ceremonies, we celebrate 2025 Nobel Laureate in Physics, Michel Devoret! He shares the prize with John Martinis & John Clarke for the foundational circuits that became the basis of our quantum chips today. Watch Michel's incredible journey.

It’s long overdue for Quantum and Classical computation to set some healthy boundaries. Using Willow, we demonstrated a clear quantum advantage on the bounded-resource 2D hidden linear function problem function and several other quantum games. https://t.co/ssnbwxoMFz

Think you need a PhD for a job in quantum computing? Not necessarily, our quantum researchers joined from physics, engineering & even cryogenics. What unites them is curiosity and a drive for excellence. Learn more about Google Quantum AI team here → https://t.co/8wa2XM4ytQ

Thank you to our partners @TU_Muenchen & @UoN_Physics

Using quantum simulations, researchers were able to observe the behavior of "invisible strings" that tie together particles. From stretching, to vibrating, to creating new particles, here's what we found → https://t.co/srsGUML8kb

Behind building a quantum computer lies a world of subtle sounds. This ASMR journey invites you into the lab’s quiet rhythms, gentle hums, and intricate patterns of work, offering a glimpse into the focus and precision that drive scientific discovery.

Building a fault-tolerant quantum computer is the grand challenge of hardware. Using it is the grand challenge of applications. Learn more about the five-stage framework to map the journey from abstract quantum idea to real-world impact ↓

Recently published in @Nature, Decoded Quantum Interferometry (DQI), a new quantum algorithm achieving exponential speedup on select optimization problems. Learn more → https://t.co/U7VPMI1TKS

Our very own Hartmut Neven recently sat down with James Manyika at Research@ to share insights around Quantum Echoes, our recent breakthrough algorithm where we demonstrated verifiable quantum advantage. Watch here ↓

We're honored to be recognized in the 2025 PCMag Technical Excellence Awards for our work demonstrating exponential suppression of errors on our Willow chip. This progress brings us one step closer to using quantum computing to solve real-world problems ↓

Today we announce a significant step in quantum computing by introducing Quantum Echoes, a new quantum computational algorithm measuring out-of-time-order correlators. This verifiable quantum advantage paves the way for solving real-world problems. More: https://t.co/xxK6zjG1Mm

Hear from Michel Devoret, our Chief Scientist of Quantum Hardware, on our latest breakthrough algorithm: Quantum Echoes. His early work on superconducting artificial atoms laid the foundation for the Willow chip, enabling verifiable quantum advantage.

Building quantum computers faces a core challenge: control qubits without losing info. Hear from Yu Chen, Director, Quantum Processor, on the “secret sauce” behind Willow. It let Quantum Echoes run 13,000x faster, a verifiable quantum advantage. Read → https://t.co/6mzhF78AQp

With @UCBerkeley, we tested Quantum Echoes by predicting two molecular structures on Willow and confirming them via NMR spectroscopy. This is an exciting exploration of the potential of quantum computing in studying molecular properties.

Today in @Nature, we published a breakthrough demonstration of verifiable quantum advantage using a measurement known as out-of-time-order correlator (OTOC), or Quantum Echoes. Performed on our Willow chip, it paves a path toward real-world applications → https://t.co/kZyomrKPSx

New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage. Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest