Problems of antimatter after Big Bang, dark energy and dark matter. Solutions in the frame of non-local physics
Boris V. Alexeev

TL;DR
This paper introduces a non-local physics framework using generalized quantum hydrodynamics to explain cosmic phenomena like dark energy, dark matter, and antimatter, challenging traditional local physics assumptions.
Contribution
It develops a novel non-local physics approach that explains cosmological observations without invoking dark matter or dark energy, and introduces quantum solitons as stable cosmic structures.
Findings
Quantum solitons are stable objects in self-consistent electric fields.
The universe's Hubble effect and galaxy rotation curves can be explained without dark matter or dark energy.
The theory suggests antimatter issues stem from oversimplified local physics assumptions.
Abstract
Quantum solitons are discovered with the help of generalized quantum hydrodynamics. The solitons have the character of the stable quantum objects in the self consistent electric field. The delivered theory demonstrates the great possibilities of the generalized quantum hydrodynamics in investigation of the quantum solitons. The theory leads to solitons as typical formations in the generalized quantum hydrodynamics. The principle of universal antigravitation is considered from positions of the Newtonian theory of gravitation and non-local kinetic theory. It is found that explanation of Hubble effect in the Universe and peculiar features of the rotational speeds of galaxies need not in introduction of new essence like dark matter and dark energy. Problems of antimatter after Big Bang are considered from positions of non-local physics. The origin of difficulties consists in total…
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Taxonomy
TopicsCosmology and Gravitation Theories · Relativity and Gravitational Theory · Pulsars and Gravitational Waves Research
