P28: Black Holes Demystified: What They Actually Are, the Universal Centrality Rule, Why Singularities Cannot Form, and Why Hawking Radiation Doesn't Exist
Year: 2026
Type: conference-abstract
Abstract: Standard astrophysics defines black holes as independent objects characterised by singularities and event horizons. This paper argues that no such objects exist. What are observed as black holes are vortical compression cores - organised, finite-density structures sustained by rotational dynamics within the Spaticle field substrate. Three formation pathways are identified: (1) large-scale rotational aggregation, which is inherently self-sustaining; (2) stellar collapse, which produces transient seed cores; and (3) explosive release events (supernovae, hypernovae, gamma-ray bursts), which similarly generate seed cores. These pathways are unified by the Rotational Sustenance Principle, introduced here: no vortical compression core can persist without continuous rotational reinforcement from surrounding matter. Isolated Pathway 2 and 3 seeds do not persist without surrounding rotating mass. The paper establishes the Universal Centrality Rule as a central Big Flare-Up Theory (BFUT) prediction: the primary vortical compression core of every settled galactic system occupies its dynamical centre. Additional black holes or developing local vortices can exist elsewhere within the same galactic system and do not, by themselves, falsify the rule. The relevant falsification condition is the absence of a primary central black hole or dominant central vortex, or a persistent substantial displacement of that primary structure in a settled system. The galaxy-whirlpool analogy is given rigorous grounding within the physical conditions of three-dimensional infinite space and the Spaticle medium. Nine common theoretical claims about black holes are examined and addressed. Six falsifiable predictions are presented.
Author: Sharma, Vijay Shankar
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7165754159
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