kF Metric Framework: Numerical Resultants and Geometric Derivations for Non-Singular S/UMBH Interiors

PRIORITY NOTICE: This technical note formalizes the 0.1867 Stationary Floor and 61.0 Temporal Yield Gradient resultants first derived on Feb 25, 2026. This filing serves as the authoritative source for these constants during the active ethics review of unauthorized derivative works (Ref: Springer Case 2026-KF-01). This work challenges the traditional singular models of supermassive and ultramassive black holes (SMBH/UMBH). By analyzing the extreme gravitational depths beyond the event horizon and accretion disk, we propose a model where the expected physical singularity is replaced by a finite, albeit immense, gravitational well. At the lower limits of this depth, we demonstrate that spacetime ceases to function as a constant. Instead, the high density triggers a total breakdown of local physics, leading to the thinning of the dimensional barrier and the emergence of a multi-dimensional rift characterized by a swirling field of intense energy. This framework provides a potential resolution to the Cosmic Censorship Conjecture (CCC) by replacing the naked singularity with a structured, energetic transition zone. This draft accompanies the metric data and technical methodology revisions cited in the related works. Please note: The second PDF entitled "THE kF METRIC FRAMEWORK: A GROUNDING DEFENCE" (alternate title: Numerical Resultants and the Final Diagnostic of the Schwarzschild Metric) is the secondary part of this paper.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-03-30
DOI
https://doi.org/10.5281/zenodo.19300003
Primary Topic
Astrophysical Phenomena and Observations
Type
article
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article

kF Metric Framework: Numerical Resultants and Geometric Derivations for Non-Singular S/UMBH Interiors

Kyle Flamson
Zenodo (CERN European Organization for Nuclear Research)
Astrophysical Phenomena and Observations
article

kF Metric Framework: Numerical Resultants and Geometric Derivations for Non-Singular S/UMBH Interiors

Kyle Flamson
article en

Abstract

PRIORITY NOTICE: This technical note formalizes the 0.1867 Stationary Floor and 61.0 Temporal Yield Gradient resultants first derived on Feb 25, 2026. This filing serves as the authoritative source for these constants during the active ethics review of unauthorized derivative works (Ref: Springer Case 2026-KF-01). This work challenges the traditional singular models of supermassive and ultramassive black holes (SMBH/UMBH). By analyzing the extreme gravitational depths beyond the event horizon and accretion disk, we propose a model where the expected physical singularity is replaced by a finite, albeit immense, gravitational well. At the lower limits of this depth, we demonstrate that spacetime ceases to function as a constant. Instead, the high density triggers a total breakdown of local physics, leading to the thinning of the dimensional barrier and the emergence of a multi-dimensional rift characterized by a swirling field of intense energy. This framework provides a potential resolution to the Cosmic Censorship Conjecture (CCC) by replacing the naked singularity with a structured, energetic transition zone. This draft accompanies the metric data and technical methodology revisions cited in the related works. Please note: The second PDF entitled "THE kF METRIC FRAMEWORK: A GROUNDING DEFENCE" (alternate title: Numerical Resultants and the Final Diagnostic of the Schwarzschild Metric) is the secondary part of this paper.

Zenodo (CERN European Organization for Nuclear Research)
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Astrophysical Phenomena and Observations
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