Synthesis of Application-Specific Quantum Network-on-Chip
Distributed quantum computing (DQC) enables scalable quantum systems by connecting multiple QPUs, but performance is limited by inter-QPU communication resources such as communication qubits, entanglement generation, and link capacity. This motivates application-specific Quantum NoC (QNoC) design, where the interconnect is tailored to the application workload. We present an automated QNoC synthesis framework for multi-QPU architectures using dedicated communication qubits with LTM interfaces and a silicon-photonic entanglement distribution network (EDN). The flow explores candidate subnet mappings and link configurations, evaluates them through transpilation, and ranks them using a weighted score based on communication usage, SWAP overhead, and execution time. Experiments on benchmark circuits show workloaddependent trade-offs and demonstrate that application-specific QNoC synthesis can reveal useful architectural design insights.
Citation
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@inproceedings{milad2026SynthesisofApplicationSpecificQuantumNetworkonChip2026,
title = {Synthesis of Application-Specific Quantum Network-on-Chip},
author = {Milad Eslaminia and Sébastien Le Beux},
booktitle = {IEEE Interregional NEWCAS (New Circuits and Systems) Conference},
year = {2026}
} Remerciements
Ces travaux ont été soutenus en partie par le Conseil de recherches en sciences naturelles et en génie du Canada (CRSNG) et par le Fonds de recherche du Québec — Nature et technologies (FRQNT).