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.
Kaili Xiang (Wed,) studied this question.
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