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This is a vendor-reported resource estimate, not a demonstrated factoring run. Iceberg Quantum's claims rest on its own circuit-level simulations of QLDPC codes and its Crevasse decoder, so the figures (48,000 to 72,000 physical qubits for RSA-2048) should be checked against independent analysis. The result still matters for readers because it shows continued drops in the overhead needed for fault-tolerant cryptanalysis, which strengthens the case for accelerating post-quantum cryptography migration.
Sources coveringQuantum Computing Report, Latent Space, Quantum Zeitgeist, arXiv
What this isA model's reading of the article and related coverage, written for aiqbench. Not the publisher's words.

Iceberg Quantum Validates Pinnacle 1.2 Architecture with Crevasse QLDPC Decoder to Reduce RSA-2048 Factoring Resources

Quantum Computing Report3 min read

Iceberg Quantum's Pinnacle 1.2 architecture, featuring the Crevasse QLDPC decoder, significantly reduces the resources needed to factor RSA-2048. They achieved logical error rates below 10^-12 per logical qubit-cycle, a critical threshold for this task, through direct circuit-level simulations. This breakthrough could factor RSA-2048 in as little as 0.98 days with 48,000 physical qubits. The post Iceberg Quantum Validates Pinnacle 1.2 Architecture with Crevasse QLDPC Decoder to Reduce RSA-2048 Factoring Resources appeared first on Quantum Computing Report.

Fault-tolerant quantum architecture startup Iceberg Quantum has released Pinnacle 1.2, demonstrating direct circuit-level simulations of quantum low-density parity-check (QLDPC) codes that validate logical error rates below 10-12 per logical qubit-cycle—the threshold required to execute 2048-bit RSA integer factorization. The breakthrough is enabled by Crevasse, Iceberg…

Excerpt shown under the publisher's RSS terms · 45 words · full text and figures are on the publisher's site

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