On the Golden Control of Inflection in a Homeostatic Expanding Omega-Space

On the Golden Control of Inflection and the Dynamic Identity of Bodies in a Homeostatic Expanding Omega-Space This extended technical note develops the theoretical framework introduced in On the Golden Control of Inflection in a Homeostatic Expanding Omega-Space and adds a second central principle: two bodies may coincide as spatial configurations at an initial time while still being distinct physical bodies if their initial fields of motion differ. The work starts from the growth ratio Φ(t) = R(t+T)/R(t) and the dynamical law Φ̇ = −Γ(t)(Φ² − Φ − 1), whose unique positive fixed point is the golden ratio φ = (1 + √5)/2. The Archimedean-like and Fibonacci-like regimes are treated as dynamically separated intervals controlled by the golden transition surface Σc. The angular coefficient b(t) = ln(Φ(t))/π maps the expansion ratio into spiral geometry, with the golden state given by bφ = ln(φ)/π. The geometry is formulated inside the bounded quadratic domain ΩQ = {x ∈ ℝ² : xᵀQx ≤ 1, Q = Qᵀ ≻ 0}. Boundary evolution is described through curvature, inflection sets, covariance tensors, graph Laplacians, spectral energy, and a scalar geometric complexity functional S(Xt). Under the condition that S(Xt) remains below a critical threshold τ(ΩQ), the number of inflection points remains topologically stable. The extended part introduces the dynamic identity principle. If two embeddings satisfy X₀ᴬ = X₀ᴮ but have different initial velocity fields, Ẋ₀ᴬ ≠ Ẋ₀ᴮ, then they coincide only as instantaneous spatial configurations, not as physical bodies. The minimal physical state is therefore represented by the first temporal jet J¹₀X = (X₀, Ẋ₀), rather than by X₀ alone. This principle is developed geometrically through world-tubes, induced metrics, normal and tangential velocity decomposition, and curvature evolution. The note shows how motion induces metric variation, metric variation induces curvature evolution, and curvature evolution controls the stability or bifurcation of inflection sets. In this sense, the kinematics of expansion is interpreted as the morphodynamics of curvature. The manuscript also keeps the energy-to-matter dominance condition Θ(t) = ρE(t)/ρM(t) > 1, interpreted as a cosmological expansion regime compatible with a positive effective vacuum contribution. The resulting framework connects golden-ratio convergence, bounded geometric complexity, dynamic identity, and asymptotically stable energy/matter variation into a homeostatic expansion regime in ΩQ. This work is presented as a concise theoretical note in mathematical physics and cosmological geometry, with an intentionally algebraic and geometric style emphasizing definitions, tensors, matrices, and visual proof over extended prose.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-26
DOI
https://doi.org/10.5281/zenodo.19791946
Primary Topic
Advanced Mathematical Theories and Applications
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article
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article

On the Golden Control of Inflection in a Homeostatic Expanding Omega-Space

Guilherme Moura Fernandes
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
article

On the Golden Control of Inflection in a Homeostatic Expanding Omega-Space

Guilherme Moura Fernandes
article en

Abstract

On the Golden Control of Inflection and the Dynamic Identity of Bodies in a Homeostatic Expanding Omega-Space This extended technical note develops the theoretical framework introduced in On the Golden Control of Inflection in a Homeostatic Expanding Omega-Space and adds a second central principle: two bodies may coincide as spatial configurations at an initial time while still being distinct physical bodies if their initial fields of motion differ. The work starts from the growth ratio Φ(t) = R(t+T)/R(t) and the dynamical law Φ̇ = −Γ(t)(Φ² − Φ − 1), whose unique positive fixed point is the golden ratio φ = (1 + √5)/2. The Archimedean-like and Fibonacci-like regimes are treated as dynamically separated intervals controlled by the golden transition surface Σc. The angular coefficient b(t) = ln(Φ(t))/π maps the expansion ratio into spiral geometry, with the golden state given by bφ = ln(φ)/π. The geometry is formulated inside the bounded quadratic domain ΩQ = {x ∈ ℝ² : xᵀQx ≤ 1, Q = Qᵀ ≻ 0}. Boundary evolution is described through curvature, inflection sets, covariance tensors, graph Laplacians, spectral energy, and a scalar geometric complexity functional S(Xt). Under the condition that S(Xt) remains below a critical threshold τ(ΩQ), the number of inflection points remains topologically stable. The extended part introduces the dynamic identity principle. If two embeddings satisfy X₀ᴬ = X₀ᴮ but have different initial velocity fields, Ẋ₀ᴬ ≠ Ẋ₀ᴮ, then they coincide only as instantaneous spatial configurations, not as physical bodies. The minimal physical state is therefore represented by the first temporal jet J¹₀X = (X₀, Ẋ₀), rather than by X₀ alone. This principle is developed geometrically through world-tubes, induced metrics, normal and tangential velocity decomposition, and curvature evolution. The note shows how motion induces metric variation, metric variation induces curvature evolution, and curvature evolution controls the stability or bifurcation of inflection sets. In this sense, the kinematics of expansion is interpreted as the morphodynamics of curvature. The manuscript also keeps the energy-to-matter dominance condition Θ(t) = ρE(t)/ρM(t) > 1, interpreted as a cosmological expansion regime compatible with a positive effective vacuum contribution. The resulting framework connects golden-ratio convergence, bounded geometric complexity, dynamic identity, and asymptotically stable energy/matter variation into a homeostatic expansion regime in ΩQ. This work is presented as a concise theoretical note in mathematical physics and cosmological geometry, with an intentionally algebraic and geometric style emphasizing definitions, tensors, matrices, and visual proof over extended prose.

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