From Atomic Equilibria to Cosmological Dynamics: A Unified Mechanical Framework for Emergent Light Transmission and Gravitational Coherence

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Authors: Michel Burgardus Albertus Zwanenburg
Cited by: 0

Abstract

This work presents a unified mechanical framework linking the behavior of matter from atomic and molecular scales to planetary, galactic, and cosmological structures. Spacetime is treated as a coherent medium, where local transmission properties, including the speed of light, emerge from gravitational potential and collective coherence rather than being absolute constants. Beginning with molecular binding equilibria, the framework establishes a continuous, scale-invariant chain of mechanical coherence. Planetary orbits, stellar clustering, galactic rotation patterns, and cosmological redshift are interpreted as natural consequences of phase-locked equilibrium and tension redistribution. Long-standing anomalies, such as Shapiro delay, spacecraft trajectory deviations, and flat galactic rotation curves, are explained without invoking dark matter, dark energy, or inflationary expansions. A universal stabilization ratio governs equilibrium at every scale, providing a consistent mechanical basis from microscopic to cosmological phenomena. This framework thus offers a coherent perspective linking fundamental physical interactions to the large-scale structure and evolution of the universe. Hashtags / Keywords: #MechanicalCoherence #EmergentPhysics #VariableLightSpeed #ZippedFramework #ScaleInvariantMechanics #AtomicToCosmic #GravitationalCoherence #MicroToMacro #TensionRedistribution #GalacticDynamics #Cosmology #UnifiedPhysics #PlanetaryOrbits #StellarSystems #SpiralArms #ShapiroDelay #TrajectoryAnomalies #NoDarkMatter #NoDarkEnergy #IPSafe

Fields of Study & Subjects

Relativity and Gravitational Theory Cosmology and Gravitation Theories Advanced Mathematical Theories and Applications

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
7 February 2026
Document type
Preprint