Chapter 4 - Wave Theory and
the Atom
(Continued —
Page 9)
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Conclusion
I use simple structures here as illustrations. The connections
are more complex, however, as atoms with more than one neutron
per proton create different isotopes. Wave theory helps explain
atom formation. The sequence is as follows: first, a Kerr
swirl appears. The Kerr swirl creates a singularity that,
in turn, dispatches paths (strings). The paths generate Schwarzschild
formations. The latter generate paths with an electron cloud
connecting back to the Kerr swirl, which completes the closed
formation.
The Kerr swirls create Schwarzschild swirls in proportion
to the energy available when the main Kerr swirl was created.
Gradually, the Kerr swirl melts more energetic matter than
the Schwarzschild swirl can handle, and the excess energy
forms another Schwarzschild swirl. These additional swirls
have the same role in the circulation and conservation of
energy as the first. In atoms that are isotopes, the amount
of neutrons is the result of the dispersion of waves with
more than one Schwarzschild swirl, or of smaller waves with
more than one magnetic swirl. Pictures taken in space illustrate
this beautifully.
The atom is a concentration of energetic matter in time and
space at lower phases. It creates complex relationships with
its neighbours. Schwarzschild swirls play a role in the conservation
of energy in waves. In a wave’s natural life cycle,
however, energetic matter continually undergoes changes in
time and space, causing energy levels to decrease, until it
ends in dispersion. Nearby formations undergoing the same
process are similar, but not identical. We can see this process
most clearly by looking at the half-life of atoms. Energy
returns to space to create a new life cycle. Energy is space
and space is energy.
Now, I would like to discuss the forces in the atom and in
nature after the Big Bang. In nature, we have primal energetic
matter with a single behaviour: a swirling, inflationary motion
(see the chapter on the universe).
Energetic matter creates waves, with two swirls and two paths.
Energetic matter, even in swirls, moves by paths (strings).
Different directions of motion create different forces.
The two main swirls of a wave create the major forces of
the universe. The strong pushing and weak pulling force of
the Kerr swirl counters the strong pulling and weak pushing
force of the Schwarzschild swirl. These opposing forces generate
all known forces.
1. Energetic force = primal energetic matter. When a wave
is created, secondary magnetic forces appear.
2. Strong force = generated by energetic loop activity and
acting at a distance determined by the transverse loop
3. Weak force = generated by magnetic loop activity; acting
at an even further distance than energetic matter.
Gravitational force is a complex of all forces and relationships
between energetic paths and formations (waves) (see the chapter
on the universe).
When atoms are split in accelerators, we obtain a large amount
of different particles (energetic forces), a veritable “zoo”
of particles. Because energetic matter creates endless forces
(paths, energy levels), its formation possibilities are infinite.
- end -
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Dr. Chaim Tejman, Copyright©
2001. All rights reserved.
[Index]
[Introduction]
[Summary] [Wave
Formation] [Photons] [Gravitation]
[Time]
[Atoms] [Life]
[Cancer] [Fundamental
Force] [Gender/Why Sex?]
[Sexual Reproduction]
[Schrodinger & Heisenberg]
[Creation] [Supernova]
[Dark
Matter & Astronomy] [Speed
of Light] [Cloud Formations]
[Natural Disasters] [Global
Warming] [Thermodynamics]
[Backward Time] [Quantum
Mechanics] [Compton Effect]
[Equations] [Predictions]
[Academic Correspondences] [Contact]
[Links] [Mysteries] |
