doi.org
The Thermodynamic Stabilization of Reality (R): Resolving the Vacuum Catastrophe and Information Paradox through Quantized Black Hole Recycling
This paper introduces a paradigm shift by defining reality (R) as an eternal, time-independent operational process of existence, resolving the cosmological challenges left unanswered by Penrose’s cyclic cosmology and Hawking’s black hole evaporation model. We reject the egocentric chronological constraints of a singular Big Bang. Instead, we propose an inherent Thermodynamic Stabilizing Counterpart to the Second Law of Thermodynamics, driven by quantized, zero-entropy (S=0) virtual particle fluxes governed by the Heisenberg Uncertainty Principle. By incorporating Max Planck’s quantum foundations, we demonstrate that horizon radiation consists of discrete quantum states entangled with the interior, rendering the event horizon transparent to data and resolving the Black Hole Information Loss Paradox. Macroscopic black holes act as localized phase-transition nodes—effectively functioning as White Holes—that actively deconstruct accumulated macro-entropy. The antimatter component serves as a temporal return flux, propagating backward through the temporal loop directly into the base state of R. This continuous mechanical cycle stabilizes the vacuum energy density, mathematically dissolving the 10^120 discrepancy of the Vacuum Catastrophe and reconciling Quantum Field Theory (QFT) with General Relativity (GR/ART) without arbitrary fine-tuning.
