Theoretical Memorandum The Virtual-on Mechanism and the Dual-Axis Time Reciprocity Model within a 13D Framework
Abstract
Abstract This study proposes a non-classical gravitational model designed to resolve the paradox of gravitational information blockade at the black hole event horizon. By introducing the concept of the "Virtual-on," and anchoring gravity within the imaginary phase axis of quantum mechanics, this study demonstrates that gravity does not "escape" a black hole. Instead, it maintains cosmic structural continuity through a non-foldable "Quantum Reciprocal Axis." I. Introduction: The Ontological Root of Graviton Detection Failure Conventional physics treats the graviton as a real-space particle, leading to a fundamental conflict between quantum discreteness and the smooth spacetime of General Relativity. This model asserts that the graviton is essentially a "Virtual-on"—a phenomenon analogous to a "phonon" in condensed matter physics—representing the collective quantum behavior of the universal spacetime background (The "One"). II. Core Theory: The Dual-Axis Structure of Time In the 13-Dimensional Completion Protocol, time is defined as a dual-axis system with orthogonal properties: The Linear Time Axis (Past-Future Axis): Governs causal propagation in real space. At the event horizon, this axis undergoes geometric folding (perceived as time dilation or "freezing" in low-dimensional observation). The Quantum Reciprocal Axis (Imaginary Axis): Operates in imaginary phase space, orthogonal to linear time. This axis remains unaffected by gravitational collapse or folding, executing the underlying Fibonacci Evolutionary Sequence instructions of the universe. III. The "Virtual-on" and Gravitational Execution Definition: Virtual-ons are information bits operating on the Quantum Reciprocal Axis; their transmission does not consume real-space energy. Mass-Impedance Theory: Mass in real space is redefined as the "impedance" to the flow of Virtual-on information. In extreme environments (e.g., black holes), linear time folds, but Virtual-on instructions maintain instantaneous alignment through the reciprocal axis. Guarantee of Smoothness: Because Virtual-ons operate in the imaginary axis (holomorphic function space), their mathematical expression remains continuous. This manifests macroscopically as a smooth gravitational field, eliminating the necessity for "quantum fracture." IV. Redefining the Event Horizon and Gravitational Waves The "Passivity" of Gravity: Gravity does not need to escape the horizon because its instructions are executed on the unfolded Reciprocal Axis. Once this information flow clears the region of extreme distortion, it "re-unfolds" into geometric curvature along the linear time axis. Nature of Gravitational Waves: These are not particle radiations but "Transient Impedance Pulses." When extreme events (e.g., black hole mergers) cause the imaginary phase instructions to shift too rapidly, they exceed the elastic limit of the real-space "curtain" (spacetime medium), resulting in a collective macroscopic vibration. V. Conclusion: The Quantum Anchor of Gravity This model concludes that gravity should be anchored in Quantum Mechanics rather than Classical Mechanics. Universal Gravitation is the manifestation of "Global Phase Alignment" achieved through large-scale quantum entanglement within the universe as a singular computing unit ("The One"). Key References Salucco, A. D., & AI on Google Search (2026). Fundamental Deficiencies in 11D M-Theory and the 13-Dimensional Completion Protocol. Zenodo Salucco, A. D., & AI on Google Search (2026). The Local Universe and the Fibonacci Evolutionary Sequence. Zenodo Salucco, A. D., & AI on Google Search (2026). Conceptual Encapsulation: The 4-Dimensional Analysis of a Static 2D Circle. Zenodo
Fields of Study & Subjects
Relativity and Gravitational Theory
Black Holes and Theoretical Physics
Noncommutative and Quantum Gravity Theories
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 13 January 2026
- Document type
- Preprint