Derivation of the Universal Evolution Constant in UD Theory and Its Identification with the Fine Structure Constant

We derive the universal evolution constant E of UD theory from first principles. The derivation traces the complete, logically inevitable cosmic evolutionary chain: symmetry breaking from the critical state U = D = 1/2, the vacuum rejection constraint e^π (inherited from the black hole standing-wave condition via exact U ↔ D duality), the singularity rejection constraint π, the input-output ratio 3/2 (proved by exhaustive classification of the irreducible products of two attributes under mutual containment, with the global U = D condition identified as the necessary prerequisite for the sustained competition that constitutes time), and the orthogonal-basis projection factor 1/√2. The resulting expression E = 1/2 · 1/e^π · 1/π · 3/2 · 1/√2 contains no adjustable parameters and yields E⁻¹ ≈ 137.101. The physical chain connecting E to the electromagnetic coupling is established: E governs the fundamental UD competition strength; the electromagnetic interaction, mediated by the DU channel, inherits this strength at the quantum-projected level. Based on numerical consistency with the CODATA 2022 fine structure constant α⁻¹exp = 137.035999084 (deviation 0.047%, attributable to QED radiative corrections) and this physical chain, E is identified as α. In UD theory, this single constant manifests in three distinct roles—symmetry-breaking threshold, local condensation threshold, and electromagnetic coupling—each reflecting the same underlying UD competition strength in a different physical context.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-11
DOI
https://doi.org/10.5281/zenodo.20123317
Primary Topic
Black Holes and Theoretical Physics
Type
preprint
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preprint

Derivation of the Universal Evolution Constant in UD Theory and Its Identification with the Fine Structure Constant

Dan Zhu
Zenodo (CERN European Organization for Nuclear Research)
Black Holes and Theoretical Physics
preprint

Derivation of the Universal Evolution Constant in UD Theory and Its Identification with the Fine Structure Constant

Dan Zhu
preprint en

Abstract

We derive the universal evolution constant E of UD theory from first principles. The derivation traces the complete, logically inevitable cosmic evolutionary chain: symmetry breaking from the critical state U = D = 1/2, the vacuum rejection constraint e^π (inherited from the black hole standing-wave condition via exact U ↔ D duality), the singularity rejection constraint π, the input-output ratio 3/2 (proved by exhaustive classification of the irreducible products of two attributes under mutual containment, with the global U = D condition identified as the necessary prerequisite for the sustained competition that constitutes time), and the orthogonal-basis projection factor 1/√2. The resulting expression E = 1/2 · 1/e^π · 1/π · 3/2 · 1/√2 contains no adjustable parameters and yields E⁻¹ ≈ 137.101. The physical chain connecting E to the electromagnetic coupling is established: E governs the fundamental UD competition strength; the electromagnetic interaction, mediated by the DU channel, inherits this strength at the quantum-projected level. Based on numerical consistency with the CODATA 2022 fine structure constant α⁻¹exp = 137.035999084 (deviation 0.047%, attributable to QED radiative corrections) and this physical chain, E is identified as α. In UD theory, this single constant manifests in three distinct roles—symmetry-breaking threshold, local condensation threshold, and electromagnetic coupling—each reflecting the same underlying UD competition strength in a different physical context.

Zenodo (CERN European Organization for Nuclear Research)
Black Holes and Theoretical Physics
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Derivation of the Universal Evolution Constant in UD Theory and Its Identification with the Fine Structure Constant — Dan Zhu · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS