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A Topological-Resonance Enhanced Quantum Communication System A Practical Roadmap for Next-Generation Secure Networks

Kaili Xiang

Published May 6, 2026• 0 citations
Publisher

Abstract

We present an engineering-ready, high-robustness quantum communication framework that unifies novel gravitational-screening decoherence suppression, quantum entanglement nonlocality, quantum teleportation, and superdense coding with a topological-encoded double-helix carrier scheme. The core relation describes how an enhanced background field E suppresses the effective gravitational mass of baryonic matter, drastically reducing environmental decoherence and stabilizing quantum entanglement for long-haul transmission. We derive the critical operating condition, with the field strength ratio E over E0 equal to or greater than three, for stable, low-error quantum links. This enables ultra-long-distance entanglement distribution, high-fidelity quantum teleportation, and doubled spectral efficiency via superdense coding under atmospheric and fiber-optic perturbations. A compact, wearable, biocompatible integrated communication terminal is designed using integrated photonics, piezoelectric energy harvesting, and double-helix nano-antennas, fully compatible with existing quantum network infrastructures, including quantum key distribution, quantum repeaters, and satellite-ground links. This system resolves three critical engineering bottlenecks in current quantum communication: fragile entanglement, limited long-distance coverage, and bulky terminal equipment, providing a scalable, field-deployable pathway for next-generation global secure quantum networks.

DOI
10.5281/zenodo.20049758

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We present an engineering-ready, high-robustness quantum communication framework that unifies novel gravitational-screening decoherence suppression, quantum entanglement nonlocality, quantum teleportation, and superdense coding with a topological-encoded double-helix carrier scheme. The core relation describes how an enhanced background field E suppresses the effective gravitational mass of baryonic matter, drastically reducing environmental decoherence and stabilizing quantum entanglement for long-haul transmission. We derive the critical operating condition, with the field strength ratio E over E0 equal to or greater than three, for stable, low-error quantum links. This enables ultra-long-distance entanglement distribution, high-fidelity quantum teleportation, and doubled spectral efficiency via superdense coding under atmospheric and fiber-optic perturbations. A compact, wearable, biocompatible integrated communication terminal is designed using integrated photonics, piezoelectric energy harvesting, and double-helix nano-antennas, fully compatible with existing quantum network infrastructures, including quantum key distribution, quantum repeaters, and satellite-ground links. This system resolves three critical engineering bottlenecks in current quantum communication: fragile entanglement, limited long-distance coverage, and bulky terminal equipment, providing a scalable, field-deployable pathway for next-generation global secure quantum networks.
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Quantum networks provide a versatile infrastructure for communication, computing, and sensing with quantum information. Novel sources and detectors for transmitting and receiving quantum states are critical elements in the development and eventual deployment of robust quantum networks. Alongside performance, the compatibility of quantum network devices with modern networking infrastructure is an important requirement for deployment. We present results on the integration of quantum communication using superdense coding transmitted over optical fiber links into network environments. Our approach takes advantage of a novel complete Bell-state measurement setup that relies on hyper-entanglement in the temporal and polarization degrees of freedom for a two-photon state emitted from a quantum light source. Using linear optics and common single-photon detectors, we record a single-qubit channel capacity of 1.665±0.018. We then demonstrate a full experimental implementation of hybrid, quantum-classical communication protocol for image transfer applications. Our devices integrate with existing fiber optical network and software-defined transmitters and receivers as part of a modular design to provide an extensible quantum communication system that can adapt to future quantum technology goals.
Quantum networks provide a versatile infrastructure for communication, computing, and sensing with quantum information. Novel sources and detectors for transmitting and receiving quantum states are critical elements in the development and eventual deployment of robust quantum networks. Alongside performance, the compatibility of quantum network devices with modern networking infrastructure is an important requirement for deployment. We present results on the integration of quantum communication using superdense coding transmitted over optical fiber links into network environments. Our approach takes advantage of a novel complete Bell-state measurement setup that relies on hyper-entanglement in the temporal and polarization degrees of freedom for a two-photon state emitted from a quantum light source. Using linear optics and common single-photon detectors, we record a single-qubit channel capacity of 1.665±0.018. We then demonstrate a full experimental implementation of hybrid, quantum-classical communication protocol for image transfer applications. Our devices integrate with existing fiber optical network and software-defined transmitters and receivers as part of a modular design to provide an extensible quantum communication system that can adapt to future quantum technology goals.