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Crystalline Time: A Model of Cosmogenesis from Logical Asymmetry

DOI: 10.4236/jhepgc.2026.122044, PP. 823-838

Keywords: Big Bang, Discrete Spacetime, Emergent Geometry, Causal Set Theory, Planck Scale, Entropy, Information Theory, Backflow Cosmology

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Abstract:

This paper proposes a novel framework for cosmogenesis in which the universe is bounded not only by energetic or geometric constraints, but also by logical structure. We define two cosmogenic boundary conditions: the Planck Portal, marking causal termination at T BH = T Planck , and the Absolute Zero Boundary, representing anti-causal initiation at T BB = T abs.zero . These dual ruptures in spacetime—driven respectively by mass-energy density and logical asymmetry—establish a time-symmetric model in which black holes act as curvature-bound information sinks and the Big Bang is interpreted as a recrystallization rupture within a cold, metastable vacuum. We introduce the concept of a crystalline vacuum lattice whose structure sets a shape-dependent threshold for cosmogenesis, replacing the traditional notion of a singularity. This model offers a path toward unifying entropy, information flow, and the arrow of time within a logically grounded, predictive cosmological theory.

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