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July 10, 20260 citationsOpen Access

State Relational Entropy (SRE) Dynamics: Progress Report on Phase Theoretical Deepening and Engineering Application

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YLYue Lu

Key Points

  • This report aims to transition from empirical formulations to algebraic invariance within State Relational Entropy Dynamics.
  • Phase 2.0 framework utilizes spectral graph theory and random matrix theory for background independence.
  • Outlines mechanisms for supermassive galaxy formation and gravitational lensing through a variable speed of light and phase transitions.
  • Implements engineering solutions like full-duplex communication via Möbius flows and semiconductor probability hedging.
  • Successfully provides an algebraic framework that explains the dynamics of spacetime and gravity.
  • Unifies fundamental physical laws, offering new insights into cosmology and electrodynamics.
  • Presents groundbreaking engineering implications for communication and material science.

Abstract

This report presents Phase 2.0 of State Relational Entropy (SRE) Dynamics, marking a definitive transition from empirical formulations to pure algebraic invariance. By leveraging Spectral Graph Theory and Random Matrix Theory (RMT), the updated v6.0 framework achieves absolute background independence, demonstrating that spacetime topology, gravitational coupling, and the speed of light emerge naturally as probabilistic metrics from a decentralized, bidirectional Möbius information network. The paper outlines significant breakthroughs in unifying fundamental physical laws: Cosmology: Explains early-universe supermassive galaxy formation via a Variable Speed of Light (VSL) mechanism under primordial network squeeze, and accounts for systematic shifts in gravitational lensing through BBP phase-transition-driven dimensional expansion. Electrodynamics: Derives Maxwell’s field equations utilizing Graph Cohomology, reinterpreting charge, vacuum impedance, and Planck's constant as synchronization invariances rather than intrinsic material properties. Microscopic Logic: Formalizes the electron as an irreducible causal loop and derives the strong interaction from logical pressure gradients induced by spectral compression. Finally, the report discusses pioneering engineering implications, including instantaneous full-duplex communication via Möbius topological flows, probability domain hedging for next-generation semiconductors and superconductors, and a novel cosmic evolution framework under the "Sovereign Universe Tree of Life Protocol."

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Cite This Study

Yue Lu (2026) studied this question.

synapsesocial.com/papers/6a508cc46eeac72a437a0a29https://doi.org/10.5281/zenodo.21252187
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