Entropyics 3 : Rotational Threshold, Naked Singularity, and Entropy-Based Black Hole Formation (v3)
✔️ This work is licensed under CC BY-ND 4.0. See detailed reproduction notice below. The full manuscript is available in the “Files” section above. ✔️ This paper presents Entropyics 3, a rotational model of black hole formation that challenges conventional mass-collapse frameworks. Instead of treating mass as the sole driver, the theory proposes that black holes emerge when rotational force exceeds a critical threshold, tearing spacetime and exposing a naked singularity. ✔️ The naked singularity is positioned not as a defect but as the gateway of information storage. Event horizons are reframed as dynamic shells formed by residual angular momentum rather than fixed barriers. Gravity itself is reinterpreted as the lingering echo of past rotation. ✔️ Statistical validation shows a strong correlation (R² ≈ 0.91) between accumulated entropy and the expansion of event horizon radius, reinforcing the model’s predictive capacity. This entropy-based framework integrates into a cyclical cosmological view in which spin generates storage, storage drives expansion, and overflowed storage seeds a new universe. ✔️ In sum, this theory redefines black holes as dynamic entropy repositories governed by spin thresholds, offering a novel pathway for entropy-centered cosmology and information-driven physics. [Public Reproduction Notice] Licensed under CC BY-ND 4.0. Academic reuse (including summarization, reinterpretation, or translation) is strictly prohibited. Media reproduction — including YouTube, blogs, podcasts, articles, and social platforms — is permitted and encouraged, only with clear attribution to “Y. Jang” and “Entropyics”. Any distortion, misrepresentation, or out-of-context reframing of the theory is strictly prohibited.
Publication Details
- Journal
- Open Science Framework
- Published
- 2025-01-01
- DOI
- https://doi.org/10.17605/osf.io/fdztc
- Primary Topic
- Diverse Scientific and Economic Studies
- Type
- article
- Field-Weighted Citation Impact
- 0.00