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Fig
1. Using tape affix the disk magnet to the end of the stick as shown.
Make sure the disk hangs just slightly below the edge of the stick and
that the tape does not cover this lower part of the magnet.
Lay the ring magnet on a nonmagnetic table,
positive (N) pole up. Use a directional compass to determine polarity.
Later it will be shown how to find S or N polarity using only the implements
already described.
Fig 2. The ring and disk magnets
must be in contact and at 90-degrees to one another. The disk's S pole
faces the center of the ring magnet's N. Fingers grasp the stick at the
top and prevent the magnets from adhering to one another except at the
edges. The experimenter's grip keeps the magnets in an orthogonal relationship
(at right angles).

Fig
3. While holding the magnets at rigid right angles slowly twist the
stick counterclockwise (CCW). When the disk is at 45-degrees of arc from
a diameter line on the ring it will start moving CCW on the ring's outer
rim surface.
Now the experimenter must master two actions.
First: The fingers must keep the
stick magnet twisted at that 45-degree angle relative to the ring's center
as it moves. With finger dexterity practice, the disk will orbit the ring's
outer rim.
Second: Magnets must physically scrape
one another while moving, but the operator can lift upward ever so slightly
to minimize friction.
Once these motions are mastered the operator
will notice that on the N pole of the ring the disk will only orbit from
its starting point 2 and 2/3 times (2.666). On the S pole it will be 3
¾ times (3.75). At these points the disk will stop and will be
reluctant to do anything else unless lifted apart and started over again.
Skeptics will rightly note that this is
not continuous motion. I ask them to bear with me. Magnet motor experimenters
have complained in the past of an odd, perplexing phenomenon; spin, they
report, is only sustained when a person is in the combined magnetic fields.
A human being has to be "part of the circuit" to make the device
function! Yet this experiment started with a hand out of the field holding
a non-conductive tool, but then stopped after 2.666, or 3.75 orbits. Can
the disk magnet be made to go around the ring continuously? Yes. And the
answer to how is perhaps the strangest revelation of all.
Another coincidental discovery of mine is that the human hand seems to
have some kind of weird quantum "switch" located perhaps in
the wrist. So, assuming the ring is N up, the operator is male and holding
the stick where it stopped in his right hand, he needs to touch the ring
magnet's outer edge with a digit of the left hand, but if he uses a finger
nothing will happen. When he touches the ring's outer edge with his thumb
the disk will instantly resume orbiting and will continue to do so until
he removes his thumb. If the ring is S up he needs to touch the edge with
his index finger to make the disk resume orbiting. In both cases the hand
must be relaxed so that the thumb and index finger have a natural distance
between them of 45-degrees of arc. If attempting to activate the stopped
disk with the thumb and index finger closed upon one another, or forced
open to 90-degrees nothing is likely to happen.
(I am convinced that this information once
examined deeply will also have a profound influence in the field of human
health.) If the operator is female, the order is reversed; index finger
on N and thumb on S. Other variations may occur involving combinations
of fingers, or depending on what wiring diagram was used in the womb.
At all times during the orbit the magnets
must continue to touch much like brushes on a communicator.
The direction of orbit on the N pole ring's
outer rim is always one way, CCW. When the disk is put on the inner rim
of the N ring magnet and twisted 45-degrees the orbit rotation is CCW
or CW depending on the direction the stick is twisted. The direction of
orbit on the S pole ring's outer rim can be either CCW or CW. At the S
pole inner rim the disk will not spin on the pole surface's edge, but
tries to get down in the hole and spin there at another, different 90
and 45-degree twist.
NOTE: the N single direction spin and the S dual direction can be used
to determine polarity without using a magnetic compass.
If the ring circumference has a chipped
surface the disk tends to skip over the gouges and will throw off the
stop count. Engineers may be inclined to think of this skipping behavior
at the imperfections as a way to continuous spin by forming gaps deliberately,
and insulating them for a smooth transit. I probably won't discourage
experimentation, but offer a cautionary note just the same. We're not
speaking of a normal electric motor, so normal engineering approaches
probably won't work to solve the more esoteric problems of field orientation.
Happily, there is a way to stop the magnets
from scraping against one another, and also a way to replace the thumb/finger
in the circuit without complicating the basic mechanics. The demonstration
offered here is only proof of principle and shows a strong probability
that such a machine can exist. But it is also proof positive that the
human being does have a measurable influence on magnetic fields. There
is a veritable tangle of variances involving geometry, materials, numbers
of armature increments placed with other numbers of stator increments,
or the inherent different numbers involved in the opposite fields of the
N or S poles of single magnets, and the distance ratios between everything.
It is a confusing mess of variables that is almost impossible to keep
track of, which gives a hint as to why others in the past have tread this
path to success only to find it impossible to duplicate experiments. Yet,
once the human is replaced in the circuit, the answer becomes a dumbfoundingly
simple configuration of all the above-mentioned augmentations.
With sharply defined optimism I continue
on this path that daily lays itself out in greater clarity.
* The Golden Vortex, Conscious Publishing, 2000, by Nick Nelson.
The Motor in the Magnet, paper delivered to the International New Energy
Conference, 2001, Salt Lake City, Utah.
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