Although the gravitational force of particles has been measured, and the graviton that’s supposed to carry it has been hypothesized, no particle has been detected that can be identified as carrier of the gravitational force. Well, this work is an attempt at doing just that.
We build our understanding of the subject matter by
studying the other forces of nature, and how they relate to the particles that
carry them. We begin with the electromagnetic force which, in reality is that
of the magnetic electron that becomes electricity when it moves. And so, we
concentrate on the magnetic properties of the electron.
The electron is a small particle whose behavior can be
studied by examining what it does to a bar that’s made of iron and has been
magnetized by lining up the electrons it contains “head to tail.” What this
does, is cause the electrons to create what has been termed a “magnetic field”
around the iron bar. So the question is this: What’s that field made of ?
That field is made of particles which are even smaller
than the electron. They exit the head of the electron at the speed of light,
turning themselves into de Broglie wave-particles, and re-enter the electron at
the tail. We can see this effect by placing a cardboard on the magnetized iron
bar and sprinkle it with powdered iron. The powder lines up along the field
lines while bulging outward and looking like an elongated football. This indicates
that the particles are themselves polarized, having a head and a tail of their
own.
We now get two identical iron bars and magnetize them. Placing
them head to tail, they attract each other. Placing them head to head or tail
to tail, they repel each other. Why is that? We can see why when we look at the
magnetic field that’s made by the wave-particles. The moment they move out of
the electron’s head, they turn around and fly in the direction of the
electron’s tail where they again turn around just before they enter the
electron at its tail.
And so, when we place the two magnetized bars head to
tail, what comes out the head of one bar is absorbed by the tail of the other,
and the bars attract each other in response. When we place the bars head to
head, the exiting wave-particles push each other, causing the bars to do
likewise. When we place the bars tail to tail, the wave-particles advance
directly toward the tail of the other bar rather than turn around and enter at
the tail of their own bar. That’s because the direct line is the path of least
resistance. This causes the bars to repel each other, but the repelling proves
to be less forceful than the head to head positioning.
What does that do to a universe that’s made of
self-duplicating Alpha (A) particles? It turns the universe into one that has a
second means of communication in addition to the familiar electro-magnetic
wave. The pendulum that swings in sympathy with another pendulum confirms this
hypothesis.
The difference between the two means of communication,
however, is that the electromagnetic wave can act only on a receiver that’s
designed to receive it, amplify it and modulate it. By contrast, the de Broglie
wave-particle is created by a disturbance that causes it to travel throughout
the universe, modulating the field of every object it encounters—almost in a
Newtonian fashion—including the nearby pendulum and our brain tissues.