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Beyond the Causal Diamond: A Probabilistic Model of Cyclical Quantum Gravity

DOI: 10.4236/jhepgc.2026.122045, PP. 839-856

Keywords: Quantum Gravity, Time-Density Field, Black Hole Thermodynamics, Causal Diamonds, Cyclical Cosmology

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Abstract:

We propose a finite, probabilistic, and algebraic formulation of quantum gravity based on the Chrono-Emergence (CE) emergence law and the Discrete-State Time Density (DTD) field t ^ . This framework reinterprets gravity as being driven by elastic strain in the t ^ field. We derive a finite critical time density, t ^ crit = 2π/c , at which spacetime enters a dense-time phase, suppressing coherent wave transport and black body radiation. This mechanism defines the Chrono-Quantum Mirror (CQM), a finite phase boundary that replaces the classical event horizon and supplants the evaporation paradigm. We define the Timeon Lattice Potential (TLP) and the Chrono-Emergent Tunneling (CET) mechanism as the microscopic drivers for matter-confinement within this field. Cosmologically, we propose a multiverse lattice of interacting domains, where the Lattice Gravitational Strain (LGS) from causal bleed manifests as dark matter, and the expansionary momentum from a cyclical Chrono-Shear Event manifests as dark energy. This cycle culminates in a final, acausal deconfinement and reconvergence of matter-energy that seeds the next domain’s causal onset phase. We propose distinct, falsifiable experiments to test the theory. The result is a unitary, thermodynamically closed, and observationally-grounded ecosystem of solutions for foundational physics termed Timeon Lattice Multiverse Cosmology.

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