aiqbench analysis
This research proposes a novel framework using Quantum Markov Blankets (QMBs) to optimize quantum-enabled semantic communication networks by isolating essential information and shielding it from noise and eavesdroppers. Simulations indicate that this approach could significantly reduce qubit consumption by 50%-75% while improving transmission fidelity compared to non-optimized schemes. The work represents a substantive theoretical advance in bridging quantum information theory with efficient semantic data transmission protocols.
QCMI-Based Quantum Markov Blanket Discovery for Semantic Quantum Networks
arXiv:2609.23190v1 Announce Type: new Abstract: Quantum-enabled semantic communication networks (QESCs) leverage quantum technologies to transmit data meaning efficiently, yet face challenges from costly resources and noise. This letter introduces Quantum Markov Blankets (QMBs) to QESCs, a novel framework to isolate essential quantum information for semantic transmission. We prove QMBs' validity using quantum conditional mutual information, showing that they shield semantic content from irrelevant subsystems. An implementation strategy optimises QMB detection, reducing resource use. Simulations suggest that QMB-based QESCs cut qubit consumption by 50\%-75\% while enhancing fidelity compared with non-optimised quantum semantic schemes. Unlike classical approaches, QMBs offer inherent security by limiting an eavesdropper's access to classical data outside the blanket. We outline future directions, including real-time QMB adaptation. This work bridges quantum information theory and semantic communication, advancing resource-efficient and secure quantum networks.
Abstract:Quantum-enabled semantic communication networks (QESCs) leverage quantum technologies to transmit data meaning efficiently, yet face challenges from costly resources and noise. This letter introduces Quantum Markov Blankets (QMBs) to QESCs, a novel framework to isolate essential quantum information for semantic transmission. We prove QMBs' validity using quantum conditional mutual information, showing that they shield semantic content from irrelevant subsystems. An implementation strategy optimises QMB detection, reducing resource use. Simulations suggest that QMB-based QESCs cut qubit consumption by 50\%-75\% while enhancing fidelity compared with non-optimised quantum semantic schemes. Unlike classical approaches, QMBs offer inherent security by limiting an eavesdropper's access to classical data outside the blanket. We outline future directions, including real-time QMB adaptation. This work bridges quantum information theory and semantic communication, advancing resource-efficient and secure quantum networks.
Quantum Physics (quant-ph); Information Theory (cs.IT)
arXiv:2609.23190 [quant-ph]
(or arXiv:2609.23190v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2609.23190 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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