Information-Driven Emergent Cosmology: Reconstructing the Universe via Entropic and Holographic Mechanisms

This paper introduces an innovative cosmological model that reinterprets the Universe’s evolution through the lens of information theory. Departing from the conventional Big Bang narrative, the model posits that the Universe originates from a highly compressed, information-rich state. Key theoretical underpinnings, including the holographic principle and entropic gravity, are explored to demonstrate how a dense central mass—akin to nuclear matter—stores vast amounts of entropy. When this entropy exceeds a critical threshold, an explosive, supernova-like event triggers the transition to a hot, expanding cosmos. The paper further discusses the implications of this approach for preserving initial cosmic information and linking quantum gravity with observable phenomena.<br>******There are two documents in the file, the default is the paper, the second is comprised of the backup data and calculations. *******

Publication Details

Journal
Figshare
Published
2025-01-01
DOI
https://doi.org/10.6084/m9.figshare.28391369
Primary Topic
Space Science and Extraterrestrial Life
Type
article
Field-Weighted Citation Impact
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article

Information-Driven Emergent Cosmology: Reconstructing the Universe via Entropic and Holographic Mechanisms

Figshare
Space Science and Extraterrestrial Life
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Information-Driven Emergent Cosmology: Reconstructing the Universe via Entropic and Holographic Mechanisms

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Abstract

This paper introduces an innovative cosmological model that reinterprets the Universe’s evolution through the lens of information theory. Departing from the conventional Big Bang narrative, the model posits that the Universe originates from a highly compressed, information-rich state. Key theoretical underpinnings, including the holographic principle and entropic gravity, are explored to demonstrate how a dense central mass—akin to nuclear matter—stores vast amounts of entropy. When this entropy exceeds a critical threshold, an explosive, supernova-like event triggers the transition to a hot, expanding cosmos. The paper further discusses the implications of this approach for preserving initial cosmic information and linking quantum gravity with observable phenomena.<br>******There are two documents in the file, the default is the paper, the second is comprised of the backup data and calculations. *******

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