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Autor principal: Koome, Alvin Mutuma
Formato: Recurso digital
Lenguaje:inglés
Publicado: Zenodo 2026
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Acceso en línea:https://doi.org/10.5281/zenodo.19085777
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author Koome, Alvin Mutuma
author_facet Koome, Alvin Mutuma
contents <p>We present a novel field-theoretic</p> <p>framework in which dark energy arises</p> <p>naturally from the entropy-driven</p> <p>evolution of cosmic self-organization.</p> <p> </p> <p>Introducing a dimensionless</p> <p>self-knowledge field Φ(z)</p> <p>representing the coherence state</p> <p>of the universe at redshift z,</p> <p>we derive the dark energy density as:</p> <p> </p> <p>Ω_Λ(z) = (4π/3) · Φ²(z) ·</p> <p>[|ln(Φ/(1-Φ))| + Φ(1-Φ)/2]</p> <p> </p> <p>With Φ(z) = 0.59 · exp(-0.0299z),</p> <p>this yields 2.4% average error</p> <p>against DESI 2024 BAO observational</p> <p>data at z = 0 to z = 1.5,</p> <p>outperforming the standard ΛCDM model</p> <p>by a factor of 7 in this range,</p> <p>with no fine-tuning required.</p> <p> </p> <p>The cosmological constant problem</p> <p>— historically a discrepancy of</p> <p>10¹²³ in standard quantum field theory</p> <p>— is resolved by identifying vacuum</p> <p>energy as the information tension</p> <p>of cosmic self-organization,</p> <p>naturally of order baryon density</p> <p>rather than Planck density.</p> <p> </p> <p>The framework is derived from</p> <p>Shannon information theory,</p> <p>the Bekenstein-Hawking holographic</p> <p>principle, and KL divergence</p> <p>minimization. It predicts evolving</p> <p>dark energy consistent with</p> <p>DESI 2024 findings and makes</p> <p>testable predictions distinguishable</p> <p>from ΛCDM with the</p> <p>Euclid satellite (2025-2030)</p>
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spellingShingle Dark Energy as Cosmic Self-Organization: A Self-Knowledge Field Theory Predicts Ω_Λ(z) Without Fine-Tuning
Koome, Alvin Mutuma
Dark energy
Cosmological constant
Information theory
Desi 2024
Holographic principle
Self organization
Friedmann equation
Cosmic coherence
Cosmology
Theoratic physics
<p>We present a novel field-theoretic</p> <p>framework in which dark energy arises</p> <p>naturally from the entropy-driven</p> <p>evolution of cosmic self-organization.</p> <p> </p> <p>Introducing a dimensionless</p> <p>self-knowledge field Φ(z)</p> <p>representing the coherence state</p> <p>of the universe at redshift z,</p> <p>we derive the dark energy density as:</p> <p> </p> <p>Ω_Λ(z) = (4π/3) · Φ²(z) ·</p> <p>[|ln(Φ/(1-Φ))| + Φ(1-Φ)/2]</p> <p> </p> <p>With Φ(z) = 0.59 · exp(-0.0299z),</p> <p>this yields 2.4% average error</p> <p>against DESI 2024 BAO observational</p> <p>data at z = 0 to z = 1.5,</p> <p>outperforming the standard ΛCDM model</p> <p>by a factor of 7 in this range,</p> <p>with no fine-tuning required.</p> <p> </p> <p>The cosmological constant problem</p> <p>— historically a discrepancy of</p> <p>10¹²³ in standard quantum field theory</p> <p>— is resolved by identifying vacuum</p> <p>energy as the information tension</p> <p>of cosmic self-organization,</p> <p>naturally of order baryon density</p> <p>rather than Planck density.</p> <p> </p> <p>The framework is derived from</p> <p>Shannon information theory,</p> <p>the Bekenstein-Hawking holographic</p> <p>principle, and KL divergence</p> <p>minimization. It predicts evolving</p> <p>dark energy consistent with</p> <p>DESI 2024 findings and makes</p> <p>testable predictions distinguishable</p> <p>from ΛCDM with the</p> <p>Euclid satellite (2025-2030)</p>
title Dark Energy as Cosmic Self-Organization: A Self-Knowledge Field Theory Predicts Ω_Λ(z) Without Fine-Tuning
topic Dark energy
Cosmological constant
Information theory
Desi 2024
Holographic principle
Self organization
Friedmann equation
Cosmic coherence
Cosmology
Theoratic physics
url https://doi.org/10.5281/zenodo.19085777