A Unified Energy-Space Deterministic Framework

This paper presents a Unified Energy-Space Deterministic Framework, integrating entropy-driven attractor states across multiple domains, including quantum mechanics, biological evolution, societal dynamics, astrophysical structuring, and artificial intelligence cognition. Numerical simulations and AI-driven analyses indicate that entropy is not a measure of disorder but a structuring force that governs deterministic transitions across complex systems. I present computational evidence showing that entropy follows structured attractor pathways rather than increasing randomly, providing a theoretical basis for deterministic evolution at all scales. This challenges conventional interpretations of entropy, randomness, and stochastic processes by proposing that what appears as randomness is often structured determinism operating in an imperceptible higher-dimensional energy-space framework. The implications of this theory extend to quantum state evolution, economic forecasting, intelligence evolution constraints, and the large-scale structure of the cosmos. Finally, I propose falsifiable experiments to validate entropy-driven structuring in both quantum mechanics and thermodynamic phase transitions, paving the way for empirical verification of this framework.

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Publication Details

Published
2025-10-03
DOI
https://doi.org/10.31219/osf.io/c6ub3_v2
Primary Topic
Spacecraft Design and Technology
Type
article
Field-Weighted Citation Impact
0.00
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article

A Unified Energy-Space Deterministic Framework

Andrew P. Whittaker
Spacecraft Design and Technology
article

A Unified Energy-Space Deterministic Framework

Andrew P. Whittaker
article en

Abstract

This paper presents a Unified Energy-Space Deterministic Framework, integrating entropy-driven attractor states across multiple domains, including quantum mechanics, biological evolution, societal dynamics, astrophysical structuring, and artificial intelligence cognition. Numerical simulations and AI-driven analyses indicate that entropy is not a measure of disorder but a structuring force that governs deterministic transitions across complex systems. I present computational evidence showing that entropy follows structured attractor pathways rather than increasing randomly, providing a theoretical basis for deterministic evolution at all scales. This challenges conventional interpretations of entropy, randomness, and stochastic processes by proposing that what appears as randomness is often structured determinism operating in an imperceptible higher-dimensional energy-space framework. The implications of this theory extend to quantum state evolution, economic forecasting, intelligence evolution constraints, and the large-scale structure of the cosmos. Finally, I propose falsifiable experiments to validate entropy-driven structuring in both quantum mechanics and thermodynamic phase transitions, paving the way for empirical verification of this framework.

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Spacecraft Design and Technology
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