Tag: distributed quantum computing

Fraunhofer ISI and Saarland University Publish Quantum Repeaters Technology Roadmap Under SQuaD Project

Fraunhofer ISI has released “Quantum Repeaters – A Technology Roadmap,” prepared with Saarland University within the SQuaD project. The study compares hardware platforms including diamond color centers, trapped atoms and ions, atomic ensembles, rare-earth crystals, and semiconductor quantum dots. No single platform has emerged as dominant. First demonstrations of quantum repeaters capable of lower-loss long-distance transmission are projected before 2035. Near-term applications center on extended-range quantum key distribution, with longer-term potential in distributed quantum computing and sensor networks.

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Atom Computing and Nu Quantum Partner to Unlock Utility-Scale Quantum Computing​

Atom Computing and Nu Quantum today announced a strategic collaboration via a Memorandum of Understanding to integrate neutral-atom quantum computers with photonic networking hardware. The goal is to develop scalable, modular approaches for utility-scale quantum computing and fault-tolerant architectures. This partnership combines Atom Computing’s expertise in neutral-atom systems and quantum error correction with Nu Quantum’s leadership in quantum networking technology. Together, they aim to move the industry beyond foundational research toward transformative real-world applications at the GigaQuOp scale and beyond.

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New Research Shows Distributed Quantum Computing Can Enable Resilient and Elastic Systems at Scale

New research from Nu Quantum reveals that distributed quantum computing systems can tolerate the complete failure of individual Quantum Processing Units (QPUs). By encoding quantum information across a network, catastrophic node failures become correctable errors, allowing computations to continue seamlessly. This approach offers a modular path to fault-tolerant quantum computing at scale, outperforming monolithic designs in resilience and efficiency. The findings apply across multiple hardware modalities and mark a significant advance toward practical industrial applications.

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