gravitational magnetic electric field

Gravitational Magnetic Electric Eield

What Is a Gravitational Magnetic Electric Field: One of the Great Mysteries of Physics

What is a gravitational magnetic electric field?

Ever since astronomers observed Jupiter's magnetic fields in the 1950's they wondered if there might be another kind of field that may appear only in connection with large celestial bodies. In fact, since 1977 there has been a large group of astronomers and cosmologists that have been working together to answer the question of the existence of gravitational magnetic fields. The latter have puzzled for more than 40 years how it is possible that these fields would have such a large magnitude compared to the mass-to-energy ratios (see below). Since the 1970s, there have been reports that Jupiter and Saturn have magnetic fields with the magnitude of a thousand Earths, approximately a factor of 30 stronger than the terrestrial fields.

What are the basic principles behind it?

The force was originally discovered by Albert Einstein and found by Franklin and Rayleigh in the 19th century, and soon after, August Kekulé von Stradonitz discovered that if a magnetic field were applied to a conductor like a wire, the material would become polarized. Kekulé also discovered that if you applied a magnetic field to a magnet, it would rotate and that the direction of rotation depended on the strength of the field. It is this famous pencil line created by a human hand in wood-which was originally discovered by Galileo and shown by Kekulé to be the effect of a magnetic field (due to the perpendicular movement of the magnet) – that is the foundation for our theory of magnetism. In today’s world, we understand how it works for motors, magnetic bearings, and machines.

How does it function?

The Sun and most other known stellar objects produce much weaker magnetic fields. However, stellar bodies like the Sun have magnetic fields because they are predominantly made up of magnetic elements (or atoms), such as iron or nickel. By adding to these stellar magnetic elements, the rate of addition determines the strength of the magnetic field. This is the same process that produces Earth’s magnetic field. How is it generated? Such field-generating events must be highly energetic, and it is proposed that large binary stars merge and produce a large (though faint) gamma-ray burst, which in turn generates a strong magnetic field.

Why is it important today?

In 1909 J. Thomson determined that an electric field could produce a gravitational field, and this led to the idea that two oppositely facing electric charges, like the Earth and the Sun, could attract each other. This event was interpreted to be the cause of the movement of the planets around the Sun. In 1913 George Gamow found that the electron is affected by electromagnetic fields and moved like an electric current. He showed that this was the first demonstration of the existence of the electromagnetic field. Einstein showed that this magnetic field could affect light waves by refraction, bending, and diffusing them, and thereby altering the frequencies of the light.

Conclusion

Some particle physicists are considering the possibility that the world’s first teleportation machine has been discovered at Fermilab. If it was, then this would resolve the vast majority of major outstanding problems. Here’s a list of these major mysteries: Lattice Relativistic Quantum Field theory. Modular lattice QCD. Standard Model of particle physics. QCD model and the Short-Baseline Interferometry experiment at the LBNL. Laser Scattering of Solid Matter in Cold Plasma at the LBNL. Physics of Quantum Gravity. Young Universe Model. Higgs Boson (unlike all other major objects, had a mass equal to -1/r. In other words, matter (i.e., mass) makes up only 1/r of the universe, the rest is dark energy. Gravitational Insanity.