Today, the origin of the
magnetic field of stars and planets is explained by the dynamo effect. Since
Cowling’s anti-dynamo theorem has forbidden a purely axisymmetric
dynamo, scientists are all convinced today that the fluid flow in the core of a
star cannot be laminar, so it is turbulent. However, we will see in this study
that the configuration in which the conductive fluid contained in the core of a
star is in rapid rotation around an axis of symmetry is the one that best
explains the origin of the magnetic field of stars and planets. It also
explains why certain types of stars have very intense magnetic fields. Indeed,
we will show here that the magnetic field of stars and planets is created by
the electric current generated by the rotational movement of charged fluid
particles as in an electromagnet. The lines of this magnetic field are channelled
by the solid paramagnetic seed which plays the role of magnetic core in the
cores of planets and stars. The seed is composed mainly of Iron and Nickel on the planets and of solid
helium-3 in the stars. In this work, we will use this model of rapidly rotating
fluids to introduce a new way to ionize a neutral gas and maintain it in a
plasma state for indefinitely large time scales, to present a new technique for
generating very intense magnetic fields, to establish a new magnetic nucleation
process and to propose a new type of nuclear fusion reactor in which the plasma
is perpetually rapidly rotating.
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