Black Holes as Singular Points of a Fractal Spacetime Manifold
Abstract
This record contains a complete academic preprint (LaTeX source and compiled PDF) together with a companion theory overview document, presenting a phenomenological mathematical framework in which black holes are interpreted as singular cusp points of a fractal spacetime manifold. Theoretical contributions Spacetime is modeled as a fractal metric-measure space with statistical self-similarity Black hole singularities are reinterpreted as cusp points of vanishing Hölder regularity, rather than breakdowns of geometric structure A renormalization-group (RG) flow for an effective roughness parameter H is introduced, with three fixed points: UV singularity (H = 0), critical crossover (H = Hc), and IR attractor (H = H*) The event horizon is characterized as a crossover (inflection) surface in the roughness profile, compatible with the equivalence principle The Bekenstein–Hawking area law receives a fractal correction governed by the effective Hausdorff dimension of the horizon Three classes of falsifiable observational predictions are proposed: mass distribution scaling, ringdown spectrum corrections, and DFA roughness signatures Archive contents paper/fractal_black_holes_v2.1.tex — Full LaTeX source of the mathematical preprint paper/fractal_black_holes_v2.1.pdf — Compiled PDF of the main paper (10 pages) overview/theory_overview_v2.1.pdf — Theory overview in accessible professional language, no formulas (6 pages) CITATION.cff — Machine-readable citation metadata README.txt — Archive description and structure LICENSE.txt — CC BY 4.0 license Methodological note The manuscript is intentionally code-free and focuses exclusively on mathematical structure and conceptual consistency. It maintains explicit ontological layering: definitions, postulates, lemmas, theorems, hypotheses, and remarks are clearly separated throughout. The work is offered as a phenomenological scaffold for independent academic audit and critique — no claim of a complete quantum-gravity theory is made. MSC 2020: 83C57, 28A80, 83C75, 81T17
Fields of Study & Subjects
Black Holes and Theoretical Physics
Noncommutative and Quantum Gravity Theories
Advanced Mathematical Theories and Applications
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 2 February 2026
- Language
- EN
- Document type
- Preprint