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This research introduces the Measurement Plane, a dedicated architectural layer designed to coordinate distributed measurements across heterogeneous quantum networking devices. By separating user workflows from device-specific control within a microservices-based framework, it enables complex experiments like polarization entanglement distribution with high visibility while reducing manual configuration overhead.
A Measurement Plane for Quantum Networking
arXiv:2607.13291v2 Announce Type: replace Abstract: Quantum networking testbeds lack a distinct plane for coordinating distributed measurements and collecting experimental data across heterogeneous devices. To address this gap, we present the Measurement Plane, a dedicated plane that complements the data, control, and management planes rather than replacing or extending their pipelines. The contribution is presented as a distributed framework that organizes measurement functions into four layers: application, experiment coordination, capability, and resource agents. Our design separates user workflows from device-specific control. We implemented the framework as containerized microservices connected through publish--subscribe messaging, and validated it on a two-node quantum networking setup connected by an optical network. The framework successfully coordinated remote nodes to execute coincidence measurement and polarization entanglement distribution experiments with visibility interference of up to 98 percent. This evaluation demonstrated the effectiveness of the framework for supporting complex, distributed quantum experiments, enabling online measurement and feedback, and significantly reducing manual configuration and execution effort.
Abstract:Quantum networking testbeds lack a distinct plane for coordinating distributed measurements and collecting experimental data across heterogeneous devices. To address this gap, we present the Measurement Plane, a dedicated plane that complements the data, control, and management planes rather than replacing or extending their pipelines. The contribution is presented as a distributed framework that organizes measurement functions into four layers: application, experiment coordination, capability, and resource agents. Our design separates user workflows from device-specific control. We implemented the framework as containerized microservices connected through publish--subscribe messaging, and validated it on a two-node quantum networking setup connected by an optical network. The framework successfully coordinated remote nodes to execute coincidence measurement and polarization entanglement distribution experiments with visibility interference of up to 98 percent. This evaluation demonstrated the effectiveness of the framework for supporting complex, distributed quantum experiments, enabling online measurement and feedback, and significantly reducing manual configuration and execution effort.
Quantum Physics (quant-ph); Networking and Internet Architecture (cs.NI)
arXiv:2607.13291 [quant-ph]
(or arXiv:2607.13291v2 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2607.13291 Focus to learn more arXiv-issued DOI via DataCite
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