aiqbench analysis
This research presents an executable implementation of the Dynamic Kernel/QPacket protocol suite within the Q2NS/ns-3 simulation environment, specifically targeting entanglement distribution across linear quantum repeater chains. The study validates analytical models for link resolvability while quantifying how policy choices and node heterogeneity influence signaling load and meta-header overhead in a beyond-layering network architecture.
A Dynamic-Kernel/QPacket Executable for Quantum Repeater Chains in Q2NS/ns-3
arXiv:2608.24152v1 Announce Type: new Abstract: The Quantum Internet operates on entanglement, a non-local, non-copyable, stateful network resource, which motivates protocol organization beyond classical layering. We present a first executable specialization of the Dynamic Kernel/QPacket logic from the beyond-layering protocol suite, targeting entanglement distribution over a linear quantum repeater chain. The implementation builds on Q2NS, an ns-3-based quantum-network simulation module available through the ns-3 App Store. It realizes QPacket meta-headers with service intent and append-only action-commit stamps processed by node-local Dynamic Kernels organized as a Planner--Executor--Engine pipeline, while being deliberately scoped to an analytically verifiable service and policy. Within this scoped setting, we study node heterogeneity through a link-preparation policy that accounts for pre-distributed entanglement and uneven entanglement-generation support across nodes, including delegation via QPacket forwarding. Simulations verify analytical link-resolvability models and expose signaling load, forwarding behavior, and QPacket meta-header growth. Results show that QPacket overhead is shaped by more than just encoding, including policy choices and available network resources. Overall, this study demonstrates how the Q2NS/ns-3 substrate can support reproducible, policy-specific evaluation of quantum-native protocol-suite concepts.
Abstract:The Quantum Internet operates on entanglement, a non-local, non-copyable, stateful network resource, which motivates protocol organization beyond classical layering. We present a first executable specialization of the Dynamic Kernel/QPacket logic from the beyond-layering protocol suite, targeting entanglement distribution over a linear quantum repeater chain. The implementation builds on Q2NS, an ns-3-based quantum-network simulation module available through the ns-3 App Store. It realizes QPacket meta-headers with service intent and append-only action-commit stamps processed by node-local Dynamic Kernels organized as a Planner--Executor--Engine pipeline, while being deliberately scoped to an analytically verifiable service and policy. Within this scoped setting, we study node heterogeneity through a link-preparation policy that accounts for pre-distributed entanglement and uneven entanglement-generation support across nodes, including delegation via QPacket forwarding. Simulations verify analytical link-resolvability models and expose signaling load, forwarding behavior, and QPacket meta-header growth. Results show that QPacket overhead is shaped by more than just encoding, including policy choices and available network resources. Overall, this study demonstrates how the Q2NS/ns-3 substrate can support reproducible, policy-specific evaluation of quantum-native protocol-suite concepts.
Accepted for publication in the Proceedings of the 2026 International Conference on ns-3 (ICNS3 2026), Naples, Italy, October 19-21, 2026. 9 pages
Quantum Physics (quant-ph); Networking and Internet Architecture (cs.NI)
arXiv:2608.24152 [quant-ph]
(or arXiv:2608.24152v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2608.24152 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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