4. Mass and charge of the electron
4.1 Introduction .............................................................................. 31
4.2 Relationship between mass and electric charge of the electron ... 31
4.3 Separation of forces ................................................................... 36
4.4 Conclusion ................................................................................ 38
In this section we will see that the
properties of the electron are related to each other, since all of them depend
on the rotations of the four-dimensional Planck atom. The unit energy condition allows us to calculate
mass and charge in terms of the gravitational constants G, the Planck constant h,
and c the velocity of light, as
Heisenberg believed. On the other hand,
the relationship between mass and charge of the electron derives from the equality
in the Heisenberg Uncertainty Principle. This relationship allows us to obtain
the coefficients of the gravitational and electromagnetic forces, as well as
the relationship of these forces to the force of Planck.
4.1 Introduction
The electron, according
to current physics, is an elementary particle that lacks a known structure or
components, but has a number of intrinsic properties such as mass, electric
charge, spin, etc. These intrinsic properties, in the standard model of
particle physics, do not require or have explanation, nor are they related.
...................................................................................................................
....................................................................................................................
...................................................................................................................
4.4 Conclusion
The rotation of the atom Planck in the fourth dimension gives rise to the electron charge and energy of this
rotation or energy of the electromagnetic field gives
rise to the mass, where the electric charge is the time it takes the
electron to rotate once in the fourth dimension.
Assuming
that space-time is discrete with a diameter equal to the Planck length (figure
4.1) equations of classical physics can be applied to the microscopic
particles. Specifically, applying the gravitational potential (equation (4.1))
and the speed of rotation (equation (4.3)), to the particle, like a flat disk,
allow us to conclude that the energy (mass) of the particle is due to the
rotation of the particle (equation (4.4)) and the electric charge (equation
(4.13)) is due to the period of the particle.
It is evident that by changing the rotation direction,
the polarity of the electric charge is changed. A clockwise rotation in the
fourth dimension can only be canceled with another counter-clockwise rotation,
causing the Principle of Conservation of Charge.
Einstein
assumed that the electron is the most important particle of the universe. While
the electron turns completely in a three-dimensional space, it turns just half
lap into the fourth dimension, which causes the observed particle to look
backwards, with spin ½.
Mass Planck atom decreases with
decreasing rotation, just as the electric charge increases and the wavelength
or diameter (
). When increasing the wavelength,
the travel speed decreases to the value ac.

From the
relationship between the charge and the mass of the electron, the gravitational
and electromagnetic forces are obtained as a consequence of the product mu qu (electron
mass x electron charge) being
kept constant during the expansion of the four-dimensional Planck atom. Therefore, there
is no real separation of gravitational and electromagnetic forces. At
macroscopic scales the gravitational force predominates, as a result of the
negative electric charges of electrons, which is compensated by the positive
electric charges due to the protons.
The old
intuition that something has to be at "absolute rest" (the atoms of
space and time) was correct.
Comentarios
Publicar un comentario