Myominaung Unified Theory (MUT) v4.8: The elastic black hole remnants within the MUT framework

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1. Verfasser: Aung, Myomin
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Sprache:Englisch
Veröffentlicht: Zenodo 2026
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author Aung, Myomin
author_facet Aung, Myomin
contents <p>This paper examines the formation, stability, and observational implications of elastic black hole remnants within the Myominaung Unified Theory (MUT) framework. Using photon-sea dynamics and scalar frequency-fluid considerations, it demonstrates how black hole remnants persist after Hawking evaporation, avoiding singularities through a minimum scalar frequency f ≥ f0. The remnant mass scale is derived from the balance between photon-sea pressure and gravitational collapse, linking these objects directly to the MUT v4.0 core framework, Photon Sea phenomenology, and MATE Master Equation. Observational consequences include potential gravitational-wave signatures, cosmic-ray imprints, and localized lensing anomalies.</p>
format Recurso digital
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language eng
publishDate 2026
publisher Zenodo
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spellingShingle Myominaung Unified Theory (MUT) v4.8: The elastic black hole remnants within the MUT framework
Aung, Myomin
Myominaung Unified Theory
MUT v4.8
elastic black hole remnants
photon-sea stabilization
Hawking evaporation
scalar frequency-fluid
gravitational-wave signatures
cosmic-ray anomalies
lensing anomalies
remnant mass scale
MATE Master Equation
Photon Sea phenomenology
<p>This paper examines the formation, stability, and observational implications of elastic black hole remnants within the Myominaung Unified Theory (MUT) framework. Using photon-sea dynamics and scalar frequency-fluid considerations, it demonstrates how black hole remnants persist after Hawking evaporation, avoiding singularities through a minimum scalar frequency f ≥ f0. The remnant mass scale is derived from the balance between photon-sea pressure and gravitational collapse, linking these objects directly to the MUT v4.0 core framework, Photon Sea phenomenology, and MATE Master Equation. Observational consequences include potential gravitational-wave signatures, cosmic-ray imprints, and localized lensing anomalies.</p>
title Myominaung Unified Theory (MUT) v4.8: The elastic black hole remnants within the MUT framework
topic Myominaung Unified Theory
MUT v4.8
elastic black hole remnants
photon-sea stabilization
Hawking evaporation
scalar frequency-fluid
gravitational-wave signatures
cosmic-ray anomalies
lensing anomalies
remnant mass scale
MATE Master Equation
Photon Sea phenomenology
url https://doi.org/10.5281/zenodo.18524560