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ONE AXIOM : FOUNDATION

Primordial Symmetry & Geometric Constants
Authors: Spychalski, Robert;

ONE AXIOM : FOUNDATION

Abstract

The ONE AXIOM Foundation (0A): Geometric Derivation of $h, c$, and $G$ from the Primordial Symmetry Abstract: This is the final version (4.6, 28 December 2025) of Document 0A, the foundational pillar of the ONE AXIOM framework. It presents complete, independent, and non-circular geometric derivations of the three fundamental constants — Planck’s constant ($h$), the speed of light ($c$), and the gravitational constant ($G$) — all emerging from a single primordial symmetry group $\mathbf{G} = S_4 \times \mathbb{Z}_2^3$. No empirical fitting is used. Each constant emerges autonomously from its own mathematical domain via two rigorously defined pathways: OCR (Optimal Coherent Representation) and OER (Optimal Epistemic Resolution). 1. Planck’s Constant ($\hbar$) – The Coherence Quantum Primary: independent formula for $\hbar$ In natural units ($\hbar = c = 1$), Planck’s constant emerges from entropic minimization: $$\hbar_{\text{natural}} = \arg \min_{\rho \in \Delta_N} \mathcal{S}_{\text{ent}}(\rho) = 1 \quad (233)$$ Geometric formula (entropic complexity functional): $$\mathcal{S}_{\text{ent}} : \Delta_N \to \mathbb{R}, \quad \mathcal{S}_{\text{ent}}(\rho) = \left. \frac{1 - \sum_{i=1}^{N} p_i^{q^*}}{q^* - 1} \right|_{q^*=3/2} \quad (234)$$ Components (all from geometry, no $c$ or $G$): $\Delta_N$: probability simplex with $N = 96$ vertices (from IF/2) $q^ = 3/2$*: heart equilibrium (unique minimum of tension functional) $\rho^ = (1/N, \dots, 1/N)$*: uniform distribution (unique $\mathbf{G}$-invariant minimum) Physical meaning: $\hbar_{\text{natural}}$ is the unit of relational coherence. 2. Speed of Light ($c$) – The Propagation Invariant Primary: independent formula for $c$ In natural units ($\hbar = c = 1$), the speed of light emerges from Laplacian homogenization: $$c_{\text{natural}} = \beta \sqrt{C_{\text{eff}}} = 1 \quad (268)$$ Geometric formula (discrete Laplacian homogenization): $$\mathcal{L}_{R}^{base} \xrightarrow[\ell \to 0]{\Gamma\text{-conv}} C_{\text{eff}}(-\Delta), \quad C_{\text{eff}} = 1 \text{ (isotropic cubic)} \quad (269)$$ Components (all from geometry, no $\hbar$ or $G$): $\mathcal{L}_{R}^{base}$: discrete Laplacian on relational network $\beta$: intrinsic velocity scale from relational dynamics $C_{\text{eff}} = 1$: effective conductivity (unique for isotropic networks) $\Gamma$-convergence: rigorous homogenization theorem Physical meaning: $c_{\text{natural}} = 1$ is the maximal coherence propagation rate — the upper bound on information speed. 3. Gravitational Constant ($G$) – The Curvature Invariant Primary: independent formula for $G$ In natural units ($\hbar = c = 1$), the gravitational constant emerges directly from Fisher–Rao geometry: $$G_{\text{natural}} = S^{-N_{\text{exact}}} = S^{-\left(N_{\text{OER}} + \frac{1 + \pi / C_{\text{obs}}}{S - \pi}\right)} \quad (143)$$ Explicit form: $$G_{\text{natural}} = S^{-\left(68 + \frac{1 + \pi/150}{S - \pi}\right)} = (18.68)^{-68.0657} = 2.91 \times 10^{-87} \quad (144)$$ Components (all from geometry, no $c$ or $\hbar$): $S = 6\pi - e/16 = 18.68$: geometric capacity from Tsallis manifold $N_{\text{OER}} = 68$: OER coherence partition $C_{\text{obs}} = 150 = 96 + 64 - 10$: observable modes minus metric DOF $\pi/C_{\text{obs}}$: Fisher–Rao per-mode curvature $S - \pi$: quantum geometric excess Physical meaning: $G_{\text{natural}} = \tau_P^2 / t_0^2$ is the squared ratio of Planck time to unit time. Triangle Identity (TI): A Consistency Check, Not a Derivation After independent derivations, the three constants satisfy the Master Identity: $$\frac{G\hbar}{c^5} = \frac{1}{S^N}$$ This serves exclusively as an internal consistency verification. TI does not define or constrain any constant; it confirms the coherence of the dual-track architecture. Key Guarantees Against Fitting: Disjoint Domains: Each constant is derived on a separate mathematical chart (simplex, graph, interval). Singleton Solutions: The possibility space is a singleton for each — no free parameters. PSP Triviality: The Possibility Selection Principle (PSP) acts trivially on fundamentals — selection is forced by geometry. SI Anchors: SI numerical values serve as unit translation anchors, not as inputs to derivation. Keywords: ONE AXIOM, fundamental constants, geometric derivation of G, Planck constant, speed of light, $\mathbf{G} = S_4 \times \mathbb{Z}_2^3$, OCR/OER duality, Fisher–Rao curvature, primordial symmetry, dimensional emergence, Triangle Identity.

Keywords

$\mathbf{q=3/2}$, $\mathbf{I_F^{\text{rel}}=192}$, Quantum Gravity, unification, q-statistics, Metric Degrees of Freedom, Fisher-Rao Metric, Killing Vectors, Diffeomorphism, Geometric Derivation, Bertrand Theorem, Variational Principle, Gravitational Constant G, Tsallis Entropy, Gauge Projector, Primordial Symmetry, Geometric Constants, Fundamental Constants, Theory of Everything, Informational Geometry, Symmetry Group, SAFT, Information Geometry, Axiomatic Reduction, Poincaré Algebra, Planck Constant, D=3 Proof, Constants of Nature, Euler Anomaly, Special Adjoint Functor Theorem (SAFT), Unified Field Theory, Planck Scale, Coherence Operator, Fundamental Physics, Physical Constants, Theory of Consciousness, Dimensionality, Emergent Gravity, Category Theory, S4 x Z2^3 Group, Optimal Coherent Representation, Speed of Light, Coherence, Tsallis Statistics

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popularity
This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network.
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influence
This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
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impulse
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