THE MEISSNER EFFECT AND QUANTUM TRAPPING OF THE PARTICLES OF SATURN’S PROTOPLANETARY CLOUD PRODUCE A STABLE SYSTEM IN THE FORM OF SATURN RINGS
https://doi.org/ 10.18384/2310-7251-2018-4-54-65
Abstract
It is shown that Saturn’s rings originated from protoplanetary ice particles moving around the planet along chaotic orbits after the appearance of Saturn’s magnetic field due to electromagnetic phenomena. Due to diamagnetism and the superconductivity of ice particles, all their chaotic orbits gradually moved to the plane of the magnetic equator and formed a sombrero disk of rings and gaps. The particles of Saturn’s rings are separated from each other by a magnetic field driven out of them. As a result, each particle is trapped in a three-dimensional magnetic well, including due to the phenomenon of quantum Abrikosov vortices. This mechanism works even if the particles may have a small fraction of the superconductor. In addition to defragmentation due to gravity of an icy body having a size of Titan that flew up to Saturn, and collisions with fragments of the approaching Moon and meteorites, particles of frozen water generated by the geysers of Saturn’s satellites due to the magnetic coupling between the planet and its satellites can also contribute to the ring matter, which can result in the formation of a new ring. It is found that the rings are relict of the early days of the magnetic field of Saturn system.
About the Author
Vladimir V. Cherny
Modern Science Institute, Security Agency for Investment and Business in Russia
Russian Federation
Russian Federation
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