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Chapter 11
Miscellaneous Experiments
One thing
became apparent when I was going through the thought process in
Chapter 3 and that was my vision of how compression and
decompression worked did not fit this model. I pictured
compression was like compressing one long spring, when I removed
the force that was compressing it, the spring would return to
its original state. My view thinking about the model was
completely different; when I release the force it wouldn’t or
couldn’t return to the normal state, but would tend to stay
compressed. This didn’t make any sense. My new view was like
Figure 3-3, where someone yells fire at a crowded movie theater,
the pressure is not equal and each person or persons would get
squashed at a different rate.
I decided
to run a new experiment that would compress multiple units
instead of one long unit. I decided to use springs with washers
between them to make it easier to measure distances. Here is
what I used.


I got 28
1/4 I.D. springs 2 1/2 long and a box of washers with a big
O.D. for 1/4 inch bolts. At the top left of Figure 9-1 I have
stacked five of these washers and wrapped them with tape to make
weights. I made five weights.
I got a
piece of 2 x 6 and drilled two 1/4 holes through it and glued
two 1/4 dowels that are about 2 feet long into the holes. See
Figure 9-2.

 

I then
started stacking washer/spring/washer/spring (see Figure 9-3)
until I had 14 springs and washers and did the same on the other
dowel. Then add four weights to the first dowel, see Figure
9-4.


Notice the
difference between the far left stack with only the weights
versus the one with the released extra compression. You can see
the spring/washers lock onto the dowel.
I decided
to try it again, but this time using stacked magnets and
alternating the polarity.

I bought 20
round magnets with a 5/16 hole in then at Radio Shack and added
to 5/16 dowels to the 2 x 6 I had, then started stacking them
with alternating poles as shown in Figure 9-5.


Figure 9-6
show the results; the first picture is the two stacks (one is
just for reference). The second shows extra force applied and
the third shows what happens when you remove the force. The
same thing as the experiment on the springs, they tend to stay
compressed.
A close
look reveals what is going on, when you add more compression
they can’t go down and start moving to the sides in a twisting
fashion. Figure 9-7 shows both.


Twist,
while not apparent in the formula is an integral part of this
model.
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