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Chronicles

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Google says its Willow quantum chip using a new Quantum Echoes algorithm ran computations 13,000x faster than supercomputers, aiding drug and materials research

Michel H. Devoret was one of three physicists who won this year's Nobel Prize in Physics for a series of experiments they conducted more than four decades ago.

New York Times Cade Metz

Context & Ripple Effects

Google’s quantum program has progressed from its 2019 task-specific quantum-supremacy benchmark to the 2024 Willow unveiling, which paired 105 improved qubits with an error-correction roadmap. The new result is another performance claim built on that hardware-and-algorithm arc.

It matters because the reported speedup is tied to a computation rather than a general replacement for classical systems. Its value will depend on whether similar advantages carry into scientifically useful workloads such as chemistry and materials modeling.

First-order effects

  • Google gains a fresh benchmark for Willow and Quantum Echoes, strengthening its case that its quantum stack can outperform supercomputers on selected computations.
  • Researchers evaluating quantum approaches to drug and materials problems have a new claimed algorithm-and-hardware result to test, rather than only a qubit-count or error-correction milestone.

Second-order effects

  • Rival quantum developers will face greater pressure to publish comparable, reproducible benchmarks that connect error-corrected hardware to application-relevant algorithms.
  • Classical supercomputing remains part of the workflow, but the result raises the importance of hybrid research pipelines in which quantum processors target narrow subproblems.

Third-order effects

  • If application-linked benchmarks continue to improve, competition will shift from headline demonstrations toward access, software tooling, error correction, and validation on real research workloads.
  • The field may increasingly be judged by whether quantum speed claims translate beyond carefully chosen tasks—a threshold that could separate durable scientific platforms from isolated benchmark wins.

The trend: Quantum computing is moving from one-off speed demonstrations toward a contest to demonstrate useful, verifiable advantages on specialized scientific workloads.

Discussion

  • @sundarpichai Sundar Pichai on x
    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 [i…
  • @googleai @googleai on x
    Today, we're announcing a major breakthrough that marks a significant step forward in the world of quantum computing. For the first time in history, our teams at @GoogleQuantumAI demonstrated that a quantum computer can successfully run a verifiable algorithm, 13,000x faster than