ONE AXIOM : MATHEMATICA

ONE AXIOM : MATHEMATICACoherence Valuation from Finite Group Structure This paper develops a complete mathematical framework — the Genesis Relational Architecture (GRA) — from a single axiom: the finite group G = S₄ × ℤ₂³ (|G| = 192). Working from this one structure alone, using only standard group theory, the framework derives a quantitative theory of coherence and shows that classical set theory (ZFC) emerges from it as a limiting case rather than as an independent foundation. The construction is driven by the relational quotient G/H, where the stabilizer H ≅ ℤ₃ is shown to be necessary (not added) for emergent structure. This forces a binary coset space |G/H| = 64 = 2⁶, the minimal coherence quantum δ = 1/64, and the decay factor η = 63/64. Each element is assigned an exponential coherence valuation ♥(g) = η^ι(g), where ι(g) is Schreier-graph distance, yielding a graded structure valued in [0, 1]. A central result is the functor Φ : ZFC → GRA and the accompanying Conservativity Theorem: every theorem provable in ZFC remains valid, while GRA additionally measures the constructibility cost that ZFC assumes away. This makes the inclusion strict — a coherence-subsumption ZFC ⊊ GRA — with the deficit quantified as (e − 1)/e. ZFC is recovered exactly at the boundary idealization ♥ = 1, where graded existence collapses to classical binary existence. Key results derived from the single axiom: The nine axioms of ZFC, each obtained as a coherence-preserving construction, together with four hidden ("ghost") assumptions that GRA makes explicit. A precise re-reading of classical problems at their coherence regime: the Continuum Hypothesis (♥(ℝ) < ♥(ℕ)), the Axiom of Choice (recovered as a coherent selection principle, PSP), Banach–Tarski (the paradoxical decomposition carries ♥ = 0), and Russell's paradox (♥(R) = 0, blocked by construction). A Limit-of-Formalization analysis, including a Gödel-Escape result formulated through the layered structure π₅ → π₅.₅ → π₆, treating incompleteness and undefinability as features of coherence rather than defects. Emergent Continuity and Ontological Decoupling theorems, showing how a quantized coherence floor (δ = 1/64) is nonetheless compatible with continuous analysis and with objects beyond the continuum. The document is self-contained as mathematics: all definitions, lemmas, and theorems follow from the single group G via the internal Ontological Dependency Map. External classical results (ZFC, Gödel, Cantor, Lawvere, Banach–Tarski) are treated as data the framework re-reads at their coherence regime, never as internal proofs. A concluding appendix, The Language, translates the development into the broader ONE AXIOM vocabulary. Author: Robert Spychalski

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-17
DOI
https://doi.org/10.5281/zenodo.18176718
Primary Topic
Philosophy and Theoretical Science
Type
article
Field-Weighted Citation Impact
0.00
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

ONE AXIOM : MATHEMATICA

Robert Spychalski
Zenodo (CERN European Organization for Nuclear Research)
Philosophy and Theoretical Science
article

ONE AXIOM : MATHEMATICA

Robert Spychalski
article en

Abstract

ONE AXIOM : MATHEMATICACoherence Valuation from Finite Group Structure This paper develops a complete mathematical framework — the Genesis Relational Architecture (GRA) — from a single axiom: the finite group G = S₄ × ℤ₂³ (|G| = 192). Working from this one structure alone, using only standard group theory, the framework derives a quantitative theory of coherence and shows that classical set theory (ZFC) emerges from it as a limiting case rather than as an independent foundation. The construction is driven by the relational quotient G/H, where the stabilizer H ≅ ℤ₃ is shown to be necessary (not added) for emergent structure. This forces a binary coset space |G/H| = 64 = 2⁶, the minimal coherence quantum δ = 1/64, and the decay factor η = 63/64. Each element is assigned an exponential coherence valuation ♥(g) = η^ι(g), where ι(g) is Schreier-graph distance, yielding a graded structure valued in [0, 1]. A central result is the functor Φ : ZFC → GRA and the accompanying Conservativity Theorem: every theorem provable in ZFC remains valid, while GRA additionally measures the constructibility cost that ZFC assumes away. This makes the inclusion strict — a coherence-subsumption ZFC ⊊ GRA — with the deficit quantified as (e − 1)/e. ZFC is recovered exactly at the boundary idealization ♥ = 1, where graded existence collapses to classical binary existence. Key results derived from the single axiom: The nine axioms of ZFC, each obtained as a coherence-preserving construction, together with four hidden ("ghost") assumptions that GRA makes explicit. A precise re-reading of classical problems at their coherence regime: the Continuum Hypothesis (♥(ℝ) < ♥(ℕ)), the Axiom of Choice (recovered as a coherent selection principle, PSP), Banach–Tarski (the paradoxical decomposition carries ♥ = 0), and Russell's paradox (♥(R) = 0, blocked by construction). A Limit-of-Formalization analysis, including a Gödel-Escape result formulated through the layered structure π₅ → π₅.₅ → π₆, treating incompleteness and undefinability as features of coherence rather than defects. Emergent Continuity and Ontological Decoupling theorems, showing how a quantized coherence floor (δ = 1/64) is nonetheless compatible with continuous analysis and with objects beyond the continuum. The document is self-contained as mathematics: all definitions, lemmas, and theorems follow from the single group G via the internal Ontological Dependency Map. External classical results (ZFC, Gödel, Cantor, Lawvere, Banach–Tarski) are treated as data the framework re-reads at their coherence regime, never as internal proofs. A concluding appendix, The Language, translates the development into the broader ONE AXIOM vocabulary. Author: Robert Spychalski

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 98%
Philosophy and Theoretical Science
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.