New Electromagnetic Theory of the Origin of Saturn Rings From Superconducting Iced Particles of the Protoplanetary Cloud (The Unified Theory of the Planetary Rings Origin)

Tchernyi, Vladimir V.

doi:10.5539/apr.v6n2p56

Cited by 1 publication

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“…3,4,12,16 Previously, we assumed that the superconductivity of particles is responsible for the location of Saturn's rings in the plane of its magnetic equator and for the separation of particles, and several observed electromagnetic phenomena were explained from this standpoint. [20][21][22][23][24][25][26][27][28][29][30][31][32] However, to date there is no experimental evidence that cosmic ice may be superconductive. In this article, we try to take into account the influence of Saturn's magnetic field due to the diamagnetism of their ice particles superimposed on the gravitational field.…”

Section: Introductionmentioning

confidence: 99%

How Saturn could create dense rings after the emergence of its magnetic field. The Tchernyi-Kapranov effect: mechanism of magnetic anisotropic accretion

VV¹,

SV²

2023

PAIJ

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The origin of Saturn’s dense rings is still unclear. Here we propose a mechanism of the genesis of Saturn’s dense rings from ice particles (chunks) of the protoplanetary cloud. It shows how Saturn could create rings after the emergency of its magnetic field. We take into account the force of diamagnetic expulsion and the Tchernyi-Kapranov effect: the process of magnetic anisotropic accretion. The force of diamagnetic expulsion acts on the particles together with the gravitational and centrifugal force. As a result, the orbits of ice particles of different sizes move into the plane of magnetic equator, where their energy is minimal. Ultimately, every particle acquires its stable orbit in magnetic equator plane, and the net force prevents its radial and vertical shift. The process described here is likely to contribute to the genesis of a stable disk-shaped structure of dense rings, formation of sharp edges of rings and gaps, and separation of particles (chunks) in rings. Previous theories are not questioned here, but they are complemented with the magnetic interaction, which accounts for the Tchernyi-Kapranov effect: mechanism of magnetic anisotropic accretion of ice particles.

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