The BH-WW Model Modeling Black Holes as Genuine Holes

While standard astrophysics and general relativity depict black holes as closed gravitational graveyards harboring singularities within the spacetime continuum, quantum mechanics interprets micro-scale spatial uncertainty via probability waves. In this work, the Painlev´e–Gullstrand (PG) acoustic/river metric and Klein bottle cosmology established in our prior studies are synthesized into a single consistent framework. First, at the micro-scale, quantum particles are demonstrated to possess a temporal dimension (temporal thickness / ∆τ); in free space, this thickness manifests to the observer as a spatial dispersion (“fuzziness” / Heisenberg uncertainty), whereas matter compressed in space by gravity stretches into the temporal dimension, and upon exceeding a critical threshold, this compression forms a black hole and opens a Klein throat. Second, a black hole is shown to be not an abstract “point singularity,” but a direct drainage aperture (hole) in the fabric of spacetime. The depth that an observer perceives in local 3-space as a spherical horizon perimeter with a radius of 10,000 km is, in physical reality, a temporal distance of 13.8 billion light-years extending to the t = 0 initial boundary of the universe (the White Wall boundary). As infalling matter traverses this 13.8-billion-year transit corridor, it continues to exert gravitational tension on the local reference frame, explaining why black holes exhibit the observed colossal mass anomalies. Furthermore, the Klein manifolds of secondary black holes residing within galactic arms do not open directly to the cosmic boundary; rather, they couple at an intermediate geometric phase to the central black hole manifold at an earlier epoch. This invisible mass scaffold binds the galaxy together while concurrently slowing its premature gravitational collapse via a progressive mass-drainage mechanism, thereby extending its cosmic lifespan. When feeding ceases and the gravitational tension drops below a hysteresis threshold, the throat can no longer remain patent and closes, converting the trapped residual matter into a neutron star; this process leaves distinct observational signatures, such as fast, non-supernova optical/high-energy transients, flashes emanating from pristine empty space lacking optical progenitors, and isolated neutron stars devoid of supernova remnants (SNRs). Ultimately, through the closure of spacetime via this Klein geometry and gravitational circulation, the cosmos transforms into an eternal and cyclic engine that evaporates outwardly and collapses inwardly, resolving phenomena ranging from cosmological redshift and the cosmic microwave background to the Axis of Evil and cold neutral hydrogen accretion streams.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-29
DOI
https://doi.org/10.5281/zenodo.23770005
Primary Topic
Black Holes and Theoretical Physics
Type
article
Field-Weighted Citation Impact
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article

The BH-WW Model Modeling Black Holes as Genuine Holes

Güven Yarkadaş
1 links
Zenodo (CERN European Organization for Nuclear Research)
Black Holes and Theoretical Physics
article

The BH-WW Model Modeling Black Holes as Genuine Holes

Güven Yarkadaş
article en

Abstract

While standard astrophysics and general relativity depict black holes as closed gravitational graveyards harboring singularities within the spacetime continuum, quantum mechanics interprets micro-scale spatial uncertainty via probability waves. In this work, the Painlev´e–Gullstrand (PG) acoustic/river metric and Klein bottle cosmology established in our prior studies are synthesized into a single consistent framework. First, at the micro-scale, quantum particles are demonstrated to possess a temporal dimension (temporal thickness / ∆τ); in free space, this thickness manifests to the observer as a spatial dispersion (“fuzziness” / Heisenberg uncertainty), whereas matter compressed in space by gravity stretches into the temporal dimension, and upon exceeding a critical threshold, this compression forms a black hole and opens a Klein throat. Second, a black hole is shown to be not an abstract “point singularity,” but a direct drainage aperture (hole) in the fabric of spacetime. The depth that an observer perceives in local 3-space as a spherical horizon perimeter with a radius of 10,000 km is, in physical reality, a temporal distance of 13.8 billion light-years extending to the t = 0 initial boundary of the universe (the White Wall boundary). As infalling matter traverses this 13.8-billion-year transit corridor, it continues to exert gravitational tension on the local reference frame, explaining why black holes exhibit the observed colossal mass anomalies. Furthermore, the Klein manifolds of secondary black holes residing within galactic arms do not open directly to the cosmic boundary; rather, they couple at an intermediate geometric phase to the central black hole manifold at an earlier epoch. This invisible mass scaffold binds the galaxy together while concurrently slowing its premature gravitational collapse via a progressive mass-drainage mechanism, thereby extending its cosmic lifespan. When feeding ceases and the gravitational tension drops below a hysteresis threshold, the throat can no longer remain patent and closes, converting the trapped residual matter into a neutron star; this process leaves distinct observational signatures, such as fast, non-supernova optical/high-energy transients, flashes emanating from pristine empty space lacking optical progenitors, and isolated neutron stars devoid of supernova remnants (SNRs). Ultimately, through the closure of spacetime via this Klein geometry and gravitational circulation, the cosmos transforms into an eternal and cyclic engine that evaporates outwardly and collapses inwardly, resolving phenomena ranging from cosmological redshift and the cosmic microwave background to the Axis of Evil and cold neutral hydrogen accretion streams.

Zenodo (CERN European Organization for Nuclear Research)
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Black Holes and Theoretical Physics
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