The Integer 31 as a Discrete Geometric Node in Kochenov G

This note identifies the integer 31 as a discrete geometric node within the Kochenov gravitational framework. The number 31 is not introduced as an arbitrary fit, but emerges as the optimal integer satisfying two independent geometric constraints: Quadratic closure: 312=961=G×1011×144312=961=G×1011×144, linking 31 to the Fibonacci number F12=144F12=144 with a gap of 0.001%. Scaling optimum: (ϕ6×n)4=1011(ϕ6×n)4=1011 yields a continuous optimum n≈31.338n≈31.338; the integer 31 is the nearest discrete anchor. No neighbouring integer (30 or 32) satisfies both constraints simultaneously. The Mersenne property 31=25−131=25−1 (binary 11111) places 31 at the boundary between binary information and golden‑ratio geometry, suggesting a natural transition from discrete data to physical structure. Additional relations include 312=367×ϕ2312=367×ϕ2 (gap 0.019%), which allows the gravitational constant to be written without an explicit 312312 term. The document is empirical; it does not claim exact identities (e.g., (ϕ6×31)4(ϕ6×31)4 differs from 10111011 by 4.25%), but shows that 31 provides the best discrete approximation to the continuous geometric optimum. Keywords: 31, golden ratio, discrete node, Mersenne prime, Kochenov G, gravitational constant, Fibonacci References: φ¹²/√5 = 144 + 1/720 (Zenodo, April 2026) Kochenov Geometric Identity for G (Zenodo, April 2026) Geometric Origin of 10¹¹ in the Gravitational Constant (Zenodo, April 2026)

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-01
DOI
https://doi.org/10.5281/zenodo.19958065
Primary Topic
Advanced Mathematical Theories and Applications
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article
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article

The Integer 31 as a Discrete Geometric Node in Kochenov G

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

The Integer 31 as a Discrete Geometric Node in Kochenov G

boris kochenov
article en

Abstract

This note identifies the integer 31 as a discrete geometric node within the Kochenov gravitational framework. The number 31 is not introduced as an arbitrary fit, but emerges as the optimal integer satisfying two independent geometric constraints: Quadratic closure: 312=961=G×1011×144312=961=G×1011×144, linking 31 to the Fibonacci number F12=144F12=144 with a gap of 0.001%. Scaling optimum: (ϕ6×n)4=1011(ϕ6×n)4=1011 yields a continuous optimum n≈31.338n≈31.338; the integer 31 is the nearest discrete anchor. No neighbouring integer (30 or 32) satisfies both constraints simultaneously. The Mersenne property 31=25−131=25−1 (binary 11111) places 31 at the boundary between binary information and golden‑ratio geometry, suggesting a natural transition from discrete data to physical structure. Additional relations include 312=367×ϕ2312=367×ϕ2 (gap 0.019%), which allows the gravitational constant to be written without an explicit 312312 term. The document is empirical; it does not claim exact identities (e.g., (ϕ6×31)4(ϕ6×31)4 differs from 10111011 by 4.25%), but shows that 31 provides the best discrete approximation to the continuous geometric optimum. Keywords: 31, golden ratio, discrete node, Mersenne prime, Kochenov G, gravitational constant, Fibonacci References: φ¹²/√5 = 144 + 1/720 (Zenodo, April 2026) Kochenov Geometric Identity for G (Zenodo, April 2026) Geometric Origin of 10¹¹ in the Gravitational Constant (Zenodo, April 2026)

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 4%
Advanced Mathematical Theories and Applications
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