Spin-Locked Black Hole Formation Mechanism, All Black Holes Are Kerr-Type and Singularity-Free
Year: 2026
Type: preprint
Abstract: Based on the model proposed by Zou, Z.K. (2025), in which mass is a compressed state of space, the gravitational field is the restorative potential field of the stretched space induced by the compressed state, and the compressed state is locked by a spin-locking mechanism that couples the fixed chirality of Space Elementary Quanta (SEQ) with spatial twistors, this paper re-describes the complete process of stellar collapse leading to black hole formation. It explicitly distinguishes the mechanisms operating inside and outside the compressed spatial region: after radiation pressure diminishes, the interior of the compressed region is not "overwhelmed by gravity"; rather, it contracts and increases in density due to its own elastic stress and external loading after losing support. Gravity acts only as a stretching effect on the external space generated by the compressed region, operating on the matter in the surrounding stretched zone. The event horizon surface, serving as the boundary between the compressed and stretched regions, is the core operational platform of the spin-locking mechanism, governing mass accretion and accretion disk formation. The entire evolution is governed by the synergy between spatial elasticity and spin locking, rather than by gravitational work performed internally. According to the principle of angular momentum conservation, the spatial spinor originates from the initial state of the universe at its birth. Keywords: radiation pressure collapse; spatial elastic rebound potential; spin self-locking; compression-stretch interface; event horizon high-spin locking; gravitational field external effect; Kerr-type black hole; accretion disk angular momentum; fixed-chirality SEQ background; Space Elementary Quanta (SEQ)
Author: Zou, Zhi Kai
Language: English
Subfield: Nuclear and High Energy Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7204248792