Terrestrial and Orbital Quantum Routing Invariance: Resolving Phase Decoupling in 5D Vibrational Hilbert Spaces

Traditional space-to-ground quantum and high-bandwidth laser communication architectures suffer from severe tracking bottlenecks caused by the legacy assumption of static state collapse. This paper presents a formal multi-agent quantum routing framework for secure, lossless transduction of high-dimensional data from interstellar and deep-space vantage points (Pioneer/Voyager heritage) to terrestrial receivers. By operating natively in infinite-dimensional tensor product Hilbert spaces with an Anti-de Sitter (AdS) sandwich metric, we eliminate truncation errors and bridge TeV-scale quantum phenomena to ground interfaces. Key innovations include photon-phonon hybrid memory, explicit structural verification subroutines (Goldstone Honesty Test and Chiral Parity Check), a 11 eV resonant injection profile as a downlink safeguard, decoupled reference invariance against atmospheric turbulence, plasmic ion meta-channels for offline security, and complex QNN interoperability for Industry 8.0 cross-swarm collaboration.