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Iceberg Quantum and Diraq have demonstrated a significant milestone by validating high-rate qLDPC error correction on silicon spin hardware using NVIDIA CUDA-Q Logical. This integration proves that fault-tolerant architectures can be compiled onto localized processing blocks with electron shuttling, achieving 1,000 logical qubits while reducing physical qubit requirements by nearly an order of magnitude compared to traditional surface codes. The successful mapping of logical primitives directly to physical operations confirms the viability of this approach for scaling quantum processors without extensive global wiring.

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Iceberg Quantum and Diraq Validate Pinnacle qLDPC Architecture on Silicon Spin Hardware via NVIDIA CUDA-Q Logical

Quantum Computing ReportSeptember 15, 20262 min read

Iceberg Quantum and Diraq have successfully compiled and validated Iceberg's Pinnacle qLDPC architecture on Diraq's silicon spin-qubit hardware using NVIDIA CUDA-Q Logical. This integration demonstrates that high-rate qLDPC error correction can be achieved on silicon spin hardware without extensive global wiring, utilizing electron shuttling for localized qubit routing. This breakthrough allows for supporting 1,000 logical qubits with 150,000 physical qubits, significantly reducing hardware requirements compared to traditional methods. The post Iceberg Quantum and Diraq Validate Pinnacle qLDPC Architecture on Silicon Spin Hardware via NVIDIA CUDA-Q Logical appeared first on Quantum Computing Report.

Fault-tolerant architecture developer Iceberg Quantum and silicon spin-qubit provider Diraq have compiled and validated Iceberg’s Pinnacle quantum low-density parity-check (qLDPC) architecture on Diraq’s silicon spin-qubit hardware platform. Enabled…

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