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aiqbench takeWritten by an AI model; may contain errors — check the source.Quantum Computing

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Quantum Computing The result is a GHZ-state fidelity of about 0.515 across all 54 transmons, just above the 0.500 threshold for genuine multipartite entanglement. That margin is narrow, so the work shows full-register entanglement is achievable on cloud-accessible hardware, not that the processor is ready for deep algorithms. Readers should watch whether the automated scheduling and dynamical decoupling gains hold up across repeated runs and larger circuits.
Source coveringQuantum Computing Report
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IQM Verifies Full-Chip Entanglement Across 54-Qubit Emerald Superconducting Processor

Quantum Computing Report2 min read

IQM Quantum Computers has successfully demonstrated full-chip entanglement across all 54 qubits of its IQM Emerald processor, a significant advancement in quantum computing. This achievement validates full-lattice coherence on commercial hardware, with measured state fidelities exceeding the genuine multipartite entanglement threshold. The company utilized an automated scheduling compiler and dynamical decoupling to achieve this milestone, highlighting both progress and the ongoing challenges in maintaining coherence in quantum systems. The post IQM Verifies Full-Chip Entanglement Across 54-Qubit Emerald Superconducting Processor appeared first on Quantum Computing Report.

IQM Quantum Computers (Nasdaq: IQMX) has demonstrated simultaneous Greenberger–Horne–Zeilinger (GHZ) state entanglement across all 54 transmon qubits of its cloud-accessible IQM Emerald processor. The achievement…

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