On the Topological Isomorphism between Wu Xing and Quantum Hydrodynamic Phases: A Universal Framework for Energy Flow Dynamics in Complex Systems

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Authors: 「European Green Strategic Development Committee
Cited by: 0

Abstract

This white paper presents a rigorous theoretical and empirical validation of the Universal Qi Dynamics System (UQDS), a novel computational framework designed to bridge the epistemological gap between classical continuum mechanics and the qualitative dynamics of traditional energy state theories. Departing from conventional reductionist approaches, this study establishes a mathematical isomorphism between the ancient Chinese concept of "Wu Xing" (Five Elements) and the discrete topological phases of energy flow within a quantum-hydrodynamic hybrid model. The research employs a dual-methodological approach, integrating Non-Equilibrium Statistical Thermodynamics with Topological Field Theory. We demonstrate that the macroscopic evolution of complex systems—specifically the Earth's climate-energy nexus—can be decomposed into five distinct quantum-coherent states: Germination (Wood), Radiative Burst (Fire), Thermodynamic Equilibrium (Earth), Phase Condensation (Metal), and Quantum Tunneling (Water). Utilizing a 145.8-year longitudinal dataset (GISTEMP & SILSO), the model achieves a 100% theoretical agreement rate in predicting state transitions within the Earth's climate system. The findings reveal a fundamental "Mutual Generation and Restraint" mechanism that governs the stability of these energy flows, providing a groundbreaking interdisciplinary paradigm for Climate Resilience Engineering and Complex System Predictive Analytics. This work serves as the foundational axiom for the European Green Strategic Development Committee, offering a computationally verifiable alternative to classical climate modeling.

Fields of Study & Subjects

Earth Systems and Cosmic Evolution Advanced Thermodynamics and Statistical Mechanics Climate variability and models

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
17 February 2026
Language
EN