Entropyics 2 : Total Entropy Accumulation in Black Holes and Its Correlation with Cosmic Acceleration (v3)

✔️ This work is licensed under CC BY-ND 4.0. See detailed reproduction notice below. The full manuscript is available in the “Files” section above. ✔️ This paper introduces Entropyics, a framework that shifts cosmology from a mass-centered to an entropy-centered perspective. Traditional models interpret expansion through mass absorption, but structural changes in the universe cannot be explained by mass annihilation alone. ✔️ Statistical modeling demonstrates that black holes store not only mass (M) but immense entropy (S)—information, thermodynamic imprints, and interaction history. The cumulative entropy (ΣS) within black holes shows an exceptionally strong correlation with cosmic acceleration (Δa), with R² = 0.9978, surpassing mass-only models (R² ≈ 0.94). ✔️ This entropy-centric framework redefines black holes as information storage units that flatten curvature as entropy is absorbed. Expansion is thereby interpreted as geometric relaxation rather than an energetic phenomenon, eliminating the need for dark energy. ✔️ Beyond acceleration, the theory suggests a cyclic cosmology: once black holes reach entropy saturation (S → Smax), stored information may reverse diffuse, seeding new spacetime and offering a conceptual link between entropy, expansion, and cosmic rebirth. [Public Reproduction Notice] Licensed under CC BY-ND 4.0. Academic reuse (including summarization, reinterpretation, or translation) is strictly prohibited. Media reproduction — including YouTube, blogs, podcasts, articles, and social platforms — is permitted and encouraged, only with clear attribution to “Y. Jang” and “Entropyics”. Any distortion, misrepresentation, or out-of-context reframing of the theory is strictly prohibited.

Publication Details

Journal
Open Science Framework
Published
2025-01-01
DOI
https://doi.org/10.17605/osf.io/97vmj
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
0.00
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article

Entropyics 2 : Total Entropy Accumulation in Black Holes and Its Correlation with Cosmic Acceleration (v3)

Open Science Framework
Geochemistry and Geologic Mapping
article

Entropyics 2 : Total Entropy Accumulation in Black Holes and Its Correlation with Cosmic Acceleration (v3)

article en

Abstract

✔️ This work is licensed under CC BY-ND 4.0. See detailed reproduction notice below. The full manuscript is available in the “Files” section above. ✔️ This paper introduces Entropyics, a framework that shifts cosmology from a mass-centered to an entropy-centered perspective. Traditional models interpret expansion through mass absorption, but structural changes in the universe cannot be explained by mass annihilation alone. ✔️ Statistical modeling demonstrates that black holes store not only mass (M) but immense entropy (S)—information, thermodynamic imprints, and interaction history. The cumulative entropy (ΣS) within black holes shows an exceptionally strong correlation with cosmic acceleration (Δa), with R² = 0.9978, surpassing mass-only models (R² ≈ 0.94). ✔️ This entropy-centric framework redefines black holes as information storage units that flatten curvature as entropy is absorbed. Expansion is thereby interpreted as geometric relaxation rather than an energetic phenomenon, eliminating the need for dark energy. ✔️ Beyond acceleration, the theory suggests a cyclic cosmology: once black holes reach entropy saturation (S → Smax), stored information may reverse diffuse, seeding new spacetime and offering a conceptual link between entropy, expansion, and cosmic rebirth. [Public Reproduction Notice] Licensed under CC BY-ND 4.0. Academic reuse (including summarization, reinterpretation, or translation) is strictly prohibited. Media reproduction — including YouTube, blogs, podcasts, articles, and social platforms — is permitted and encouraged, only with clear attribution to “Y. Jang” and “Entropyics”. Any distortion, misrepresentation, or out-of-context reframing of the theory is strictly prohibited.

Open Science Framework
Openalex Percentile: Top 69%
Geochemistry and Geologic Mapping
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