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This research demonstrates how quantum processors can simulate entanglement distribution networks under realistic noise conditions like depolarization and latency. By comparing mathematical models against actual hardware constraints on IQM systems, the study reveals critical discrepancies between theoretical equivalence and practical performance in teleportation-based state construction. These findings underscore that accurate simulation of network impairments requires careful experimental design to account for specific device limitations rather than relying solely on abstract noise channels.
Emulation of Entanglement Distribution Networks on a Quantum Computer
arXiv:2607.14260v2 Announce Type: replace Abstract: We investigate how quantum computers can be used to emulate quantum networks and study their performance under practical impairments. In particular, we evaluate how degraded entanglement and communication latency affect teleportation-based distributed multipartite-entanglement-state construction. We model imperfect Bell-pair sources using depolarizing noise channels and classical communication delays using thermal relaxation. We implement the depolarization using Stinespring dilation, randomly applied Pauli errors, and quasi-probability decompositions, evaluating the latter two on IQM quantum hardware and all three in simulation. We then study the performance of the entanglement distribution under noise generated by the aforementioned models. Although these noise models are mathematically equivalent, we find that hardware constraints result in profound differences in the corresponding results, highlighting the importance of careful experiment design.
Abstract:We investigate how quantum computers can be used to emulate quantum networks and study their performance under practical impairments. In particular, we evaluate how degraded entanglement and communication latency affect teleportation-based distributed multipartite-entanglement-state construction. We model imperfect Bell-pair sources using depolarizing noise channels and classical communication delays using thermal relaxation. We implement the depolarization using Stinespring dilation, randomly applied Pauli errors, and quasi-probability decompositions, evaluating the latter two on IQM quantum hardware and all three in simulation. We then study the performance of the entanglement distribution under noise generated by the aforementioned models. Although these noise models are mathematically equivalent, we find that hardware constraints result in profound differences in the corresponding results, highlighting the importance of careful experiment design.
Quantum Physics (quant-ph); Networking and Internet Architecture (cs.NI)
arXiv:2607.14260 [quant-ph]
(or arXiv:2607.14260v2 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2607.14260 Focus to learn more arXiv-issued DOI via DataCite
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