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Black Holes Dynamics: A Quantum Tachyonic Gravity Interpretation

Angeli, Nazareno

Abstract

v1.0: This paper proposes a new interpretation of black holes within the Quantum Tachyonic Gravity (QTG) framework. Rather than singularities of infinite density, black holes are modeled as collapse rebound anomalies: scars formed when excessive quantum pressure creates an unstable antimatter rebound that annihilates baryonic matter, leaving behind a coherence void. Simulations demonstrate the field gradient rushing inward to stabilize the resulting decoherence scar. The paper includes ASCII-safe equations and a visual simulation appendix. v2.0: Refinement of the concept taking into consideration shadow-mass and tachyonic field dynamics. Black holes is then to be considered a "shadow-mass vortex" where tachyonic interactions overwhelm baryonic asymmetries reabsorbing them into the tachyonic substrate. Commentary on Informational Conservation as Frequency Interference and Synchronization in QTG. Commentary on Black Holes Boundaries as Natural Zones of Antimatter Genesis.

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Information Conservation via Frequency Synchronization in QTG Abstract This commentary introduces the concept of frequency synchronization as the mechanism preserving information continuity in Quantum Tachyonic Gravity (QTG). Rather than treating information as a localized quantity stored in baryonic matter, QTG proposes that informational structure is propagated through phase and interference modulation within the tachyonic field. During baryonic–tachyonic transitions, such as black hole absorption or particle decoherence, information is not destroyed but re-expressed as persistent frequency patterns propagating faster than light through the field continuum. This model reinterprets entropy as unresolved interference, resolves the black hole information paradox, and reframes quantum decoherence as local phase alignment rather than wavefunction collapse. 1. Propagation Instead of Storage In Quantum Tachyonic Gravity, information does not reside in localized particles or discrete quanta. Each oscillation’s phase, amplitude, and interference pattern encode the previous configuration of the system. When a baryonic form decoheres into tachyonic motion, its signature persists as a modulated wavefront that spreads outward, embedding its frequency imprint into the surrounding field. 2. Entropy as Unresolved Interference Entropy, under this interpretation, quantifies the degree of phase incoherence rather than disorder. A high-entropy system corresponds to a dense interference lattice whose frequencies have not yet synchronized with the field’s equilibrium. As rebalancing proceeds, interference reduces, and information reintegrates into the universal spectrum. 3. Continuity Across the C-Boundary The field’s tachyonic substrate ensures that no oscillation terminates abruptly at the lightspeed limit. Instead, baryonic collapse transitions the informational content into a fasterthan-light modulation domain. The event horizon or C-boundary thus acts as a phase translator, not an absorber. 4. Implications - Black Hole Information Paradox: Information is redistributed as tachyonic interference waves propagating through the field continuum. - Quantum Decoherence: Apparent wavefunction collapse corresponds to local phase alignment with the broader field, not to information destruction. - Cosmic Memory: Every event leaves a persistent harmonic trace in the tachyonic fabric, forming a continuous, dynamic record of all field interactions.