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Quantum Source's QS-LINK addresses a critical scaling bottleneck in quantum networks by replacing probabilistic photon interference with a deterministic memory-assisted protocol. By utilizing a single trapped atom as an asynchronous buffer, the system significantly reduces entanglement generation attempts while supporting multi-vendor interoperability across different hardware modalities at room temperature. This advancement represents a pivotal step toward unifying disparate quantum processing units into scalable multi-node architectures.
Quantum Source Introduces Memory-Assisted Photonic Interconnect to Unify Multi-Modal Quantum Computing
Quantum Source has introduced QS-LINK, a memory-assisted photonic interconnect that unifies multi-modal quantum computing. This technology overcomes scaling limitations in multi-processor quantum networks by using a single cavity-trapped rubidium-87 atom as an asynchronous quantum memory buffer to establish remote entanglement between separate quantum processing units (QPUs). QS-LINK significantly reduces the attempts needed to achieve entanglement compared to traditional methods, operating at room temperature and supporting various hardware modalities. The post Quantum Source Introduces Memory-Assisted Photonic Interconnect to Unify Multi-Modal Quantum Computing appeared first on Quantum Computing Report.
Tel Aviv-based photonic hardware developer Quantum Source has published the technical details of its proprietary quantum interconnect, QS-LINK. Designed to address scaling limits in multi-processor quantum networks, the system utilizes a single cavity-trapped rubidium-87 atom as an asynchronous…
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