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Quantum Data Center Infrastructures: A Scalable Architectural Design Perspective
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This paper presents the design of scalable quantum networks that utilize optical switches to interconnect multiple quantum processors, facilitating large-scale quantum computing. By leveraging these novel architectures, we aim to address the limitations of current quantum processors and explore the potential of quantum data centers. We provide an in-depth analysis of these architectures through the development of simulation tools and performance metrics, offering a detailed comparison of their advantages and trade-offs. We hope this work serves as a foundation for the development of efficient and resilient quantum networks, designed to meet the evolving demands of future quantum computing applications.
Forward citations
Cited by 3 Pith papers
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A Framework for Quantum Data Center Emulation Using Digital Quantum Computers
Partitioning a single quantum processor into logical QPUs with collisional-model noise emulates a quantum data center on real hardware.
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Entanglement Cost of Erasure Correction in Quantum MDS Codes
For an [[n,2t-n]]_Q quantum MDS code, correcting a single erased node over a star network costs exactly 2t qudits when the replacement node is the hub and 2t minus 1 qudits when a helper node is the hub.
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Performance Analysis of QAOA Across Distributed Quantum Network Topologies Using SwitchQNet
QAOA on SwitchQNet yields modest ~1.4–2.2× communication-latency reductions across QDC topologies and is useful mainly as a diagnostic benchmark for entanglement-aware scheduling.
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