Gravitational Conformity Crack Mechanism Hypothesis: Black Holes as Machines of Perfection and the Origin of Anomalous Abilities

This paper introduces the Crack-Driven Uniformity Mechanism Hypothesis, a novel theoretical framework proposed to resolve several significant stalemates in modern physics. Despite vast observational data from missions such as LIGO-Virgo (2020-2025) and the James Webb Space Telescope (2025), contemporary models like string theory and loop quantum gravity have yet to provide a unified explanation for the nature of dark matter, the observed rarity of eternal black holes, and the physical basis of anomalous cognitive phenomena such as déjà vu and precognition. Instead of introducing a fifth fundamental force, this hypothesis posits an intrinsic, self-regulating mechanism within spacetime. This mechanism is driven by the universe's inherent tendency toward uniformity and perfection by "repairing" imperfections known as "spatial cracks"—microscopic, non-uniform structures in the fabric of spacetime. In this framework, black holes are redefined not as mere gravitational singularities, but as the primary engines of this mechanism. They function as cosmic machines that actively collect and reprocess spatial cracks. Within the extreme environment of the accretion disk, these imperfections, along with ordinary matter, are theorized to be transformed into dark matter—a more uniform and "perfect" state of matter. This model provides a physical explanation for the scarcity of eternal black holes, suggesting they can only be sustained in regions with a high density of spatial cracks to fuel their continuous operation; otherwise, they are transient. The hypothesis achieves a unique micro-macro unification by linking these cosmological processes to human consciousness. Anomalous cognitive abilities are proposed to be the result of a stable, innate quantum entanglement between an individual's consciousness and a personal spatial crack. This turns the individual into a "mobile micro-singularity," allowing information from other temporal states to "leak" into their awareness, manifesting as phenomena like precognition. This framework yields specific, testable predictions, including a statistical correlation between the distribution of supermassive black holes and anomalies in the Cosmic Microwave Background, and the existence of a distinct, quantum-like neural signature in individuals who exhibit anomalous abilities, detectable via advanced neuroimaging and quantum sensing technologies. Ultimately, this hypothesis presents a new worldview of a self-regulating cosmos tending toward perfection, where consciousness is not a passive observer but an active participant in the fundamental structure of reality.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-19
DOI
https://doi.org/10.5281/zenodo.17160424
Primary Topic
Geochemistry and Geologic Mapping
Type
article
Field-Weighted Citation Impact
0.00
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article

Gravitational Conformity Crack Mechanism Hypothesis: Black Holes as Machines of Perfection and the Origin of Anomalous Abilities

Zenodo (CERN European Organization for Nuclear Research)
Geochemistry and Geologic Mapping
article

Gravitational Conformity Crack Mechanism Hypothesis: Black Holes as Machines of Perfection and the Origin of Anomalous Abilities

article en

Abstract

This paper introduces the Crack-Driven Uniformity Mechanism Hypothesis, a novel theoretical framework proposed to resolve several significant stalemates in modern physics. Despite vast observational data from missions such as LIGO-Virgo (2020-2025) and the James Webb Space Telescope (2025), contemporary models like string theory and loop quantum gravity have yet to provide a unified explanation for the nature of dark matter, the observed rarity of eternal black holes, and the physical basis of anomalous cognitive phenomena such as déjà vu and precognition. Instead of introducing a fifth fundamental force, this hypothesis posits an intrinsic, self-regulating mechanism within spacetime. This mechanism is driven by the universe's inherent tendency toward uniformity and perfection by "repairing" imperfections known as "spatial cracks"—microscopic, non-uniform structures in the fabric of spacetime. In this framework, black holes are redefined not as mere gravitational singularities, but as the primary engines of this mechanism. They function as cosmic machines that actively collect and reprocess spatial cracks. Within the extreme environment of the accretion disk, these imperfections, along with ordinary matter, are theorized to be transformed into dark matter—a more uniform and "perfect" state of matter. This model provides a physical explanation for the scarcity of eternal black holes, suggesting they can only be sustained in regions with a high density of spatial cracks to fuel their continuous operation; otherwise, they are transient. The hypothesis achieves a unique micro-macro unification by linking these cosmological processes to human consciousness. Anomalous cognitive abilities are proposed to be the result of a stable, innate quantum entanglement between an individual's consciousness and a personal spatial crack. This turns the individual into a "mobile micro-singularity," allowing information from other temporal states to "leak" into their awareness, manifesting as phenomena like precognition. This framework yields specific, testable predictions, including a statistical correlation between the distribution of supermassive black holes and anomalies in the Cosmic Microwave Background, and the existence of a distinct, quantum-like neural signature in individuals who exhibit anomalous abilities, detectable via advanced neuroimaging and quantum sensing technologies. Ultimately, this hypothesis presents a new worldview of a self-regulating cosmos tending toward perfection, where consciousness is not a passive observer but an active participant in the fundamental structure of reality.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 34%
Geochemistry and Geologic Mapping
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