What question did this study set out to answer?

The aim is to consolidate the Myo Min Aung Unified Theory across various scales of physics.

March 24, 20260 citationsOpen Access

Comprehensive Formulation of the Myo Min Aung Unified Theory (MUT) v7.25: From Nuclear Resonance to Galactic Dynamics and Dark Matter Solutions

Key Points

The aim is to consolidate the Myo Min Aung Unified Theory across various scales of physics.
Formulated the Mass Curvature Rate as a fundamental constant.
Conducted a formal refutation of critiques using AME2020 dataset.
Derived field equations using Lagrangian and scalar-tensor methods.
Fitted galaxy rotation curves with a universal length scale.
Explained the Bullet Cluster using field memory and resonance lag.
Established the Mass Curvature Rate as a key constant in nuclear and galactic dynamics.
Successfully fitted 175 galaxy rotation curves without invoking particle dark matter.
Derived the fine-structure constant from the mass ratio of protons and electrons.

Abstract

This record provides a comprehensive consolidation of the Myo Min Aung Unified Theory (MUT), presenting the complete transition from nuclear physics to cosmological scales within a single framework. The collection of documents included under this DOI establishes the Mass Curvature Rate (f₌₂ₑ) as a fundamental constant and derives its implications across multiple domains of physics. Key components of this repository include: Fundamental Defense: A formal refutation of circularity critiques regarding f₌₂ₑ using the AME2020 dataset (2, 545 isotopes). Lagrangian & Scalar-Tensor Formulation: A rigorous mathematical derivation of the MUT field equations, establishing the weak-field limit and the Yukawa-type modification of gravity. Galactic Dynamics: Successful fitting of 175 SPARC galaxy rotation curves using a single universal length scale (= 7. 1 kpc) without particle dark matter. Complex Solutions: A causal explanation for the Bullet Cluster (1E 0657-56) based on field memory and resonance lag. Fundamental Constants: The geometric derivation of the fine-structure constant () from the proton-to-electron mass ratio and the MCR field. This monograph serves as the definitive reference for the MUT v7. xx series, providing both the theoretical action-principle foundations and empirical validations.

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