Practical Guige to Free Energy Devices

intensity of these zones, determines in part, the chemical and physical properties of the atom. There are
regions where the atoms will attract each other and regions where they will repel each other. Ether particles
have a similar structure and follow the same pattern.
The velocity of orbiting electrons in atoms is not uniform. There are periodic fluctuations resulting from
mutual interferences within the atom itself and from adjacent atoms, in addition to the pulsating electrostatic
fields. It must be noted that the properties of the atom are not observed individually, but as a collective
group. The region of activity for the protons is relatively small and a significant number of electrons are
trapped here. This region is the origin of neutrons, which are actually collapsed hydrogen atoms. It is
interesting to note that when hydrogen is subjected to ultra high pressures, it behaves like a high
concentration of neutrons and passes through the container which is being pressurised as though it didn’t
exist.
A more detailed discussion of the structure of the neutron is in order. The new concept of thousands of
electrons comprising the hydrogen atom (to say nothing of the other atoms), provides, for the first time, a
means of accounting for the properties of the neutron.
When a cloud of electrons orbiting the proton is forced into close proximity with the zone of repulsion, as
described earlier, their motions become restricted. As a result, there is a lowering of the average velocity
with a consequent increase in their negative electrostatic charge. This provides a stronger bond between
the proton and the electrons. The orbital speed cannot be increased because of the zone of repulsion
surrounding the proton, and the crowding of the electrons. The higher overall negative charge of the
electrons almost completely cancels out the positive charge of the proton. The result is a particle which is
electrically neutral, as far as most experiments can determine.
The electron cloud comprising the hydrogen atom is further removed from the proton and the individual
electrons are not restricted in their orbital motions. The average velocity is much higher and consequently,
the hydrogen atom has a high positive charge. The atoms of the gaseous elements, such as hydrogen and
oxygen, are highly magnetic. Therefore, two atoms combine in much the same way as two bar magnets, to
form a molecule consisting of two atoms. This is the reason why the molecules of nearly all the gaseous
elements consist of two atoms. The combination has a still higher overall positive charge than a single atom
has. As a result of this, the molecules have a strong mutual repulsion which keeps them widely separated at
normal temperatures and pressures. Thus, they remain a gas even at extremely low temperatures.
The presence of electrons in the “nucleus”, nullifying repulsive forces, along with the magnetic fields resulting
from the motions of neutrons, is the major source of the so-called “mysterious force holding the nucleus
together”. In reality, the pinch effect of magnetic fields is the prime force which holds the atom together.
Orthodox physicists have complicated the picture by claiming that many different forces exist: magnetic,
electrostatic, gravitational, nuclear, and others to which they have ascribed odd names. In reality, only
electrostatic and magnetic forces exist and there are two, and only two, basic particles – electrons and
protons. Since the electrostatic field effects around the electron and proton are cyclic, the magnetic fields
which they generate will also have a cyclic intensity.
10. Although neither spin when at rest, both the electron and the proton start to spin in a definite direction
when they are given a velocity. This is contrary to the assertions of modern theorists who talk about particle
spin with reckless abandon. The electron always follows the left-hand rule, while the proton follows the righthand
rule.
When placed in an electrostatic field, they move in such a manner that the large end is facing in the direction
of their motion, regardless of their original orientation. The reason for this is not difficult to discern. If they
are hollow and the shell is of a certain thickness in proportion to it’s diameter, then the larger end will have
more surface area in proportion to it’s mass than the smaller end will have. The thickness of the shell at the
smaller end will be much greater in proportion to it’s diameter. This means that ether bombardment at the
larger end will tend to give it a greater acceleration than that imparted to the smaller end and as a result, the
larger end will be forced ahead in the direction of motion.
The picture is still incomplete. In order for the particle to have a preferred direction of spin, the frontal
surface must be grooved in the manner of a right-hand or left-hand screw. Such a shape is consistent with
recent experiments at the Argonne National Laboratory, which studied the shattering of proton beams aimed
at target protons. The results indicated that protons are not spherical. A detailed account of such
experiments can be found in the article “The Argonne Experiments and The End of Quarkery” by Eric Lerner
which appeared in the Oct-Nov 1997 issue of Fusion Magazine. In the article he showed that some of the
basic assumptions of quantum mechanics are contradictory, and he dispensed with the popular theory in
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