Spinning Particle as a Super Black Hole
Alexander Burinskii (NSI, Russian Academy of Sciences)

TL;DR
This paper introduces a super black hole model combining Kerr spinning particles and superparticles, revealing a horizonless, non-extreme solution with a superconducting disk and stringy excitations, advancing supergravity and black hole theory.
Contribution
It presents a novel super black hole solution derived from supershifting Kerr geometry, incorporating nonlinear (2,0)-supersymmetry and matter fields, extending classical black hole models.
Findings
Super black hole solution without horizons.
Naked Kerr singular ring hidden inside a superconducting disk.
Stringy wave excitations produce axial singular lines.
Abstract
A natural combined model of the Kerr spinning particle and superparticle is obtained leading to a non-trivial super black hole solution. By analogue with complex structure of the Kerr solution we perform a supershift on the Kerr geometry, and then select a "body"-submanifold of superspace that yields a non-trivial supergeneralization of the Kerr metric with a nonlinear realization of (2,0)-supersymmetry. For the known parameters of spinning particles this "black hole" is to be in a specific state without horizons and very far from extreme. The naked Kerr singular ring has to be hidden inside a rotating superconducting disk, built of a supermultiplet of matter fields. Stringy wave excitations of the Kerr singular ring (traveling waves) yield an extra axial singular line modulated by de Broglie periodicity.
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Taxonomy
TopicsPhysics of Superconductivity and Magnetism · Quantum, superfluid, helium dynamics · Pulsars and Gravitational Waves Research
