The Universal Gravito-Informational Theory - Principles, Limits, and Horizons

The Universal Gravito-Informational Theory (TGIU) proposes a unifying framework where gravity, entropy, and information act as the three fundamental forces of existence. At its core, TGIU describes reality as a continuous collapse from a two-dimensional informational substrate into the three-dimensional material world. This collapse is not chaotic but guided by quantifiable gradients of information (∇Φ) and entropy (∇S), constrained by the Equilibrium Force (TEF), which ensures stability between order and disorder. TGIU differs profoundly from both Quantum Mechanics (QM) and General Relativity (GR). While QM is limited by Heisenberg’s uncertainty principle and the probabilistic interpretation of measurement, TGIU claims determinism at a deeper level, grounded in hidden variables located in the 2D informational layer. Similarly, while GR frames reality as spacetime curvature governed by mass-energy, TGIU interprets curvature and memory as emergent consequences of informational collapse. A defining feature of TGIU Is the principle of non-certainty: a state that is neither pure randomness (as in QM) nor pure determinism (as in classical mechanics), but a dynamic equilibrium where outcomes are shaped by informational and entropic gradients. Non-certainty acknowledges that while the hidden variables exist, their influence is never fully measurable or controllable due to constant fluctuations within the informational ocean. The limits of TGIU arise from this same principle: while the theory aspires to universality, it accepts that no phenomenon is ever observed with 100% certainty in the 3D world, as reality itself is a frontier between the seen and the unseen, between stable matter and informational flux. This distinguishes TGIU both from the indeterminacy of QM and the relativistic determinism of GR. The horizons of TGIU extend toward cosmology, quantum physics, biology, and technology. It offers explanations for early-universe structures, dark matter and dark energy, as well as anomalies in biological systems where cellular collapse and division reveal signatures of informational gradients. Beyond science, TGIU provides a philosophical bridge: granting scientific rigor to concepts traditionally considered metaphysical, and introducing non-certainty as a natural condition of existence. In this sense, TGIU is not merely a physical theory but a paradigm of existence, where principles, limits, and horizons coexist in a dynamic balance—an Eternal Code guiding both the physical and informational dimensions of reality.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-28
DOI
https://doi.org/10.5281/zenodo.17219551
Primary Topic
Electrical Fault Detection and Protection
Type
article
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article

The Universal Gravito-Informational Theory - Principles, Limits, and Horizons

Zenodo (CERN European Organization for Nuclear Research)
Electrical Fault Detection and Protection
article

The Universal Gravito-Informational Theory - Principles, Limits, and Horizons

article en

Abstract

The Universal Gravito-Informational Theory (TGIU) proposes a unifying framework where gravity, entropy, and information act as the three fundamental forces of existence. At its core, TGIU describes reality as a continuous collapse from a two-dimensional informational substrate into the three-dimensional material world. This collapse is not chaotic but guided by quantifiable gradients of information (∇Φ) and entropy (∇S), constrained by the Equilibrium Force (TEF), which ensures stability between order and disorder. TGIU differs profoundly from both Quantum Mechanics (QM) and General Relativity (GR). While QM is limited by Heisenberg’s uncertainty principle and the probabilistic interpretation of measurement, TGIU claims determinism at a deeper level, grounded in hidden variables located in the 2D informational layer. Similarly, while GR frames reality as spacetime curvature governed by mass-energy, TGIU interprets curvature and memory as emergent consequences of informational collapse. A defining feature of TGIU Is the principle of non-certainty: a state that is neither pure randomness (as in QM) nor pure determinism (as in classical mechanics), but a dynamic equilibrium where outcomes are shaped by informational and entropic gradients. Non-certainty acknowledges that while the hidden variables exist, their influence is never fully measurable or controllable due to constant fluctuations within the informational ocean. The limits of TGIU arise from this same principle: while the theory aspires to universality, it accepts that no phenomenon is ever observed with 100% certainty in the 3D world, as reality itself is a frontier between the seen and the unseen, between stable matter and informational flux. This distinguishes TGIU both from the indeterminacy of QM and the relativistic determinism of GR. The horizons of TGIU extend toward cosmology, quantum physics, biology, and technology. It offers explanations for early-universe structures, dark matter and dark energy, as well as anomalies in biological systems where cellular collapse and division reveal signatures of informational gradients. Beyond science, TGIU provides a philosophical bridge: granting scientific rigor to concepts traditionally considered metaphysical, and introducing non-certainty as a natural condition of existence. In this sense, TGIU is not merely a physical theory but a paradigm of existence, where principles, limits, and horizons coexist in a dynamic balance—an Eternal Code guiding both the physical and informational dimensions of reality.

Zenodo (CERN European Organization for Nuclear Research)
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