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This breakthrough demonstrates a significant leap in quantum network scalability by extending entanglement storage time to over 100 times the creation duration using mixed-species trapped ions. By leveraging strontium for photonic interfacing and calcium for long-lived memory, the study directly addresses coherence challenges essential for distributed quantum computing and sensing.
Trapped ions stay entangled 100 times longer in this network

Researchers extended entanglement times for strontium and calcium qubits using trapped ions, achieving storage over 100 times longer than creation.
Researchers at the University of Oxford and Oxford Ionics have achieved entanglement of two, three and four matter qubits across a photonic network link. The work demonstrates remotely entangled strontium and calcium ions, as well as mixed-species GHZ states, and extends the storage time of these remotely-entangled memory qubits to more than 100 times the creation time. This advance addresses a key challenge in building scalable quantum networks by integrating robust quantum memories with photonic interfaces. The generation of multipartite entanglement is critical for applications like distributed quantum computing and quantum sensing. Trapped ions within a quantum network maintained entanglement for more than 100 times the creation time. This preservation of quantum states, achieved by researchers using strontium and calcium ions,…
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