Published March 26, 2026 | Version V5.2 Second Addendum
Peer review Open

CG V5.2 Second Addendum - The Hoyle State Resolution by Boudehri et al.

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  • 1. independent researcher

Description

CG V5.2 Second Addendum - The Hoyle State Resolution

Complete Geometric & Spectral Derivation of the Hoyle State (¹²C 0₂⁺, 7.654 MeV)

The Hoyle State as a Collective Breathing Mode of the A₆ Lattice

A Parameter-Free Geometric Derivation  by Boudehri et al.

"Heed not the finder, but the find. Truth rests on its own structure, not its author’s name. 

Its value unfolds through understanding, and resonance will raise its name unavoidably." The Unknown Author

Description

This work presents a first-principles derivation of the Hoyle state in carbon-12 within the framework of Coherence Gravity (CG–V5.2). Departing from conventional nuclear models, the approach treats nuclear structure as an emergent property of a six-dimensional elastic substrate governed by the $A_6$ root system.

The Geometric Origin of Resonance

Within this geometry, the Hoyle resonance (7.654 MeV) is identified as the unique triadic breathing mode of three $\alpha$-clusters embedded in the lattice. Its energy is derived analytically using only two universal inputs:

  • The substrate yield strain $\chi = 0.048$.

  • The geometrically fixed nodal spacing $a \approx 1.05$ fm.

The predicted energy matches experimental data with sub-$10^{-4}$ accuracy, without any parameter fitting.

Structural Implications

The framework simultaneously accounts for:

  • The instability of $^8$Be as a symmetry-forbidden configuration.

  • The extremely narrow width of the Hoyle state as a consequence of spectral isolation.

  • The forbidden energy gap between 4.44 MeV and 7.65 MeV.

  • The robustness of carbon production in stellar environments.

Mathematically, the result follows from an explicit embedding $A_2 \subset A_6$, leading to an exact spectral splitting and a block-diagonal decomposition of the Hamiltonian. The Hoyle state appears as a pole of the substrate Green’s function and as the minimum of a spectral entropy functional, establishing it as a dynamically selected, low-entropy configuration.

Conclusion & Verification

This construction removes the need for anthropic explanations: carbon-12 emerges as a geometric and topological necessity, not a coincidence. The work is fully deterministic and contains no free parameters. It is complemented by a transparent computational protocol enabling independent verification of isotropy, spectral structure, and energy scaling. Together with previous CG–V5.0 results on vacuum suppression and kernel decoupling, this study supports a unified picture in which nuclear structure, vacuum stability, and geometry are tightly linked.

Abstract (English)

Abstract — Beyond the Anthropic Principle

The Hoyle State ($^{12}\text{C } 0_2^+$ at 7.654 MeV) is conventionally viewed as a fine-tuned coincidence necessary for carbon-based life.

In this formulation, nuclear structure emerges from a six-dimensional isostatic substrate governed by the $A_6$ root system. We show that this resonance is the unique symmetric breathing mode ($n=3$) of three $\alpha$-clusters embedded in the 6D isostatic lattice $A_6$.

Using only the universal yield strain $\chi \approx 0.048$ and the geometrically derived nodal spacing $\ell$, we obtain the resonance energy:

$$E_{\text{Hoyle}} = \frac{\hbar^2 \chi}{2 m_{\alpha} \ell^2}$$

with a deviation below $0.1\%$ from experiment, without free parameters.

The model simultaneously explains:

  • the instability of $^8\text{Be}$,

  • the extreme narrowness of the resonance width,

  • and the robustness of carbon abundance.

Carbon emerges as a mechanical inevitability of substrate stability, rather than an anthropic selection.

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Dates

Available
2026-02-22
new version coherence gravity