Prime Lattice Theory in Context: Local Invariants and Two-Ladder Cosmology as Discipline and Scaffolding

Prime Lattice Theory (PLT) posits that physical phenomena emerge from a primeindexed discrete substrate whose symmetries (“abyssal symmetries”) and defect structure govern dynamics across scales; chronofluids (τ-syrup) encode dissipative propagation on the substrate; and consciousness acts as a perturbative field on the lattice. This paper positions PLT relative to two recent works: (i) a result establishing a logarithmic first integral for the logistic on-site law used in Void Dynamics, and (ii) a B-Space cosmology proposing a finite baryonic domain embedded in an infinite medium with a clean separation between geometry (kinematic drift) and propagation (medium drag). We argue these works strengthen PLT by providing a rigorous local invariant for reaction steps and a disciplined global ledger architecture for macro-scale inference, respectively. We articulate testable, falsifiable joint predictions, consistency checks against standard cosmological invariants, and bench protocols linking mesoscopic reaction–diffusion (RD) systems to large-scale anisotropy searches.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-02
DOI
https://doi.org/10.5281/zenodo.17253621
Primary Topic
Business, Education, Mathematics Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Prime Lattice Theory in Context: Local Invariants and Two-Ladder Cosmology as Discipline and Scaffolding

Zenodo (CERN European Organization for Nuclear Research)
Business, Education, Mathematics Research
article

Prime Lattice Theory in Context: Local Invariants and Two-Ladder Cosmology as Discipline and Scaffolding

article en

Abstract

Prime Lattice Theory (PLT) posits that physical phenomena emerge from a primeindexed discrete substrate whose symmetries (“abyssal symmetries”) and defect structure govern dynamics across scales; chronofluids (τ-syrup) encode dissipative propagation on the substrate; and consciousness acts as a perturbative field on the lattice. This paper positions PLT relative to two recent works: (i) a result establishing a logarithmic first integral for the logistic on-site law used in Void Dynamics, and (ii) a B-Space cosmology proposing a finite baryonic domain embedded in an infinite medium with a clean separation between geometry (kinematic drift) and propagation (medium drag). We argue these works strengthen PLT by providing a rigorous local invariant for reaction steps and a disciplined global ledger architecture for macro-scale inference, respectively. We articulate testable, falsifiable joint predictions, consistency checks against standard cosmological invariants, and bench protocols linking mesoscopic reaction–diffusion (RD) systems to large-scale anisotropy searches.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 35%
Business, Education, Mathematics Research
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