Black Holes as Dimensional Ruptures: A Lattice Framework for Gravitation
Year: 2025
Type: preprint
Abstract: This paper proposes that black holes are finite-area ruptures in four-dimensional spacetime that open into an adjacent higher-dimensional region. In this framework, gravity arises from a vacuum-pressure gradient across the rupture boundary. Rupture formation implies that spacetime exhibits material-like behavior, including deformation and structural failure. A minimal microstructural substrate exhibiting lattice-like mechanical behavior is introduced to recover familiar gravitational behavior under normal conditions while governing rupture formation under extreme collapse. The resulting model yields four falsifiable predictions concerning black-hole oblateness, the low-mass black-hole distribution, dark-matter-like galactic structure, and the evolution of cosmic acceleration. Version 2: Clarifies probabilistic failure mechanics, refines horizon-level oblateness prediction, adds caveats regarding dark matter phenomenology, and introduces dimensionality clarification. No change to core claims. Version 3: Clarifies decoupling of the black-hole mass floor from the neutron-star mass limit, adds discussion of secondary elastic lattice effects, and refines directional structure predictions. No change to core claims. Version 4: Clarifies the heuristic role of lattice-like terminology, renames the paper to reflect this conceptual refinement, and expands speculative discussion of the cosmological constant problem. No change to core claims. Version 5: Clarifies black-hole mass and vacuum-pressure terminology, updates black-hole-floor language, further refines horizon-level oblateness prediction, expands discussion of dark-matter-like effects, makes the proposed dark-energy mechanism more explicit, and removes several speculative extensions to sharpen the paper’s scope. No change to the core framework or principal predictions.
Source: OSF Preprints (OSF Preprints)
Author: Ader, Chris
Language: English
Subfield: Nuclear and High Energy Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7114930258
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