Geometric Origin of 10^11 in the Gravitational Constant

Geometric Origin of 10^11 in the Gravitational Constant — An Empirical Observation This note documents a purely geometric interpretation of the factor that appears in the expression for the gravitational constant GG. The number 10^11 is not treated as a decimal artefact of the SI system, but as the natural result of four turns of a 3D golden spiral (similar to a Fibonacci spiral but rising in height), combined with the micro‑step 1/7201/720. The key relations are: Four turns without breathing: 4κ≈10.9838244κ≈10.983824. Breathing term for one turn: 12/720=1/60≈0.01666712/720=1/60≈0.016667. Together they reproduce log⁡10(10^11)≈4κ+12/720log10(10^1)≈4κ+12/720 with a residual of about 0.0045%0.0045%, which is interpreted as fractal noise of the system. The gravitational constant in Kochenov form is given by two equivalent expressions: GKoch=3125ϕ12×10^11=3125(144+1/720)×10^1.GKoch=ϕ12×10113125=(144+1/720)×10113125. All numerical constants are derived solely from the golden ratio ϕϕ, the integer 31, and the micro‑step 1/7201/720. No CODATA values are used as input. The observed deviations (0.147% in the four‑turn height, 0.0045% in the final residual) lie well within the scatter of experimental measurements of GG. The manuscript serves as an empirical geometric observation, not as a claim of exact identity, and is intended for interdisciplinary readers interested in fractal scaling and the possible geometric underpinning of physical constants.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-30
DOI
https://doi.org/10.5281/zenodo.19927932
Primary Topic
Advanced Mathematical Theories and Applications
Type
article
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article

Geometric Origin of 10^11 in the Gravitational Constant

boris kochenov
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
article

Geometric Origin of 10^11 in the Gravitational Constant

boris kochenov
article en

Abstract

Geometric Origin of 10^11 in the Gravitational Constant — An Empirical Observation This note documents a purely geometric interpretation of the factor that appears in the expression for the gravitational constant GG. The number 10^11 is not treated as a decimal artefact of the SI system, but as the natural result of four turns of a 3D golden spiral (similar to a Fibonacci spiral but rising in height), combined with the micro‑step 1/7201/720. The key relations are: Four turns without breathing: 4κ≈10.9838244κ≈10.983824. Breathing term for one turn: 12/720=1/60≈0.01666712/720=1/60≈0.016667. Together they reproduce log⁡10(10^11)≈4κ+12/720log10(10^1)≈4κ+12/720 with a residual of about 0.0045%0.0045%, which is interpreted as fractal noise of the system. The gravitational constant in Kochenov form is given by two equivalent expressions: GKoch=3125ϕ12×10^11=3125(144+1/720)×10^1.GKoch=ϕ12×10113125=(144+1/720)×10113125. All numerical constants are derived solely from the golden ratio ϕϕ, the integer 31, and the micro‑step 1/7201/720. No CODATA values are used as input. The observed deviations (0.147% in the four‑turn height, 0.0045% in the final residual) lie well within the scatter of experimental measurements of GG. The manuscript serves as an empirical geometric observation, not as a claim of exact identity, and is intended for interdisciplinary readers interested in fractal scaling and the possible geometric underpinning of physical constants.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 5%
Advanced Mathematical Theories and Applications
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