Theoretical and Conceptual Fundamentals of System Computing – Quantum Oscillatory TQC/NMSI

Abstract This article introduces the theoretical and conceptual foundations of the TQC/NMSI system—a novel architecture based on subquantum oscillatory logic, integrating the New Infobitic Subquantum Mechanics (NMSI) framework. Within this paradigm, information forms the fundamental substrate of reality, and “infobits” represent the essential units composing the subquantum vacuum. Quantum entanglement, non- locality, and coherence emerge as manifestations of deeper, synchronized patterns within this infobitic field. The TQC/NMSI system utilizes entangled oscillatory qubits, stabilized by infobitic correlations, for ultra-sensitive detection of resonance phenomena. The system is designed as an oscillatory quantum network capable of detecting gravitational, electromagnetic, and geophysical anomalies through resonance node amplification. The paper extends the notion of resonance nodes to planetary-scale interactions, where celestial alignments form critical configurations that modulate Earth’s geophysical vulnerabilities. The work establishes the theoretical groundwork for a new generation of predictive systems—GeoPredict— capable of early warning of earthquakes and other large-scale geophysical processes. By combining quantum entanglement with subquantum synchronization and planetary oscillatory patterns, this model offers a scientifically plausible path to real-time, high-fidelity monitoring of Earth’s dynamic equilibrium.