Chapter 13
General Relativity and the Ether
"Classification
of mathematical problems as linear and nonlinear is like
classification
of the Universe as bananas and non-bananas."
Unknown
Altitude and the H-K
As far
as the H-K is concerned, General Relativity ("GR") is concerned with
gravity.
Gravity, of course, is stronger near the surface of the earth as opposed
to at
high altitudes. The intent of this chapter is to explain how ether and ether
drag
can logically and easily explain the "altitude" or GR portion of the
H-K
experiment.
Other topics will also be discussed.
Hafele
and Keating predicted, because of GR, that at higher altitudes the atomic
clocks
would operate at a faster speed. And, of course, they were right. At the
higher
altitudes, gravity is less potent, and the atomic clocks actually measured
time
faster than time measured at ground level. Other experiments have also
verified
this.
It
should be remembered that these are "actual time" changes. The
direction of
the
flights had no affect on the GR portion of the data.
Sometimes
an experiment gives us clearer insight into a phenomenon. Tesla
described
ether much like a person would describe a hydrogen gas atom.
Whether
this is right or not, it is important to know whether ether is compressible
and
whether it is compressible by the earth’s gravity? The Hafele-Keating
experiment
gives us the answer. Since the atomic clocks operated faster at
higher
altitudes, it is logical to say that there is less resistance (i.e. FROS) to
the
cesium
atoms at higher altitudes. Thus, if the FROS is less at higher altitudes,
the
density of ether must be less at higher altitudes. This means that the density
of the
ether is a function of gravity. This, in fact, makes perfect sense when
thinking
about the Tesla model of ether. Certainly, our atmosphere is the key,
both
our atmosphere (i.e. the air) and ether "thin out" at higher
altitudes.
Since
the density of ether is directly proportional to the strength of gravity (this
is
not an
accident, it is a clear "cause and effect" relationship), it is clear
that the
FROS
formulas for altitude would be similar, if not exactly the same, as the GR
formulas
for altitude (at least as far as measurable and verifiable formulas are
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concerned).
The variation of density by altitude is also a strong indication that
gravity
is what is holding the ether drag to the earth.
It
should be mentioned, however, that the "density" of ether may not be
a matter
of
ethons becoming physically further apart at the higher altitudes.
It may be an
issue
of energy. For example, if gravity energizes ether (or vice versa), the
ethons
may be the same physical distance apart at higher altitudes, but the
energy
levels of the ethons may less, and thus provide less resistance to the
electrons
in the atomic clocks at higher altitudes.
In any
case, Hafele and Keating did make a major discovery in their experiment,
but it
was not the one they thought they had made. They discovered that the
"density"
of ether varies by altitude and thus FROS varies by altitude and thus
"time"
varies by altitude.
Can Ether Be A Solid?
While
the reader may think that this book favors the theory that ether is a gas,
such
is not the case. Is ether a gas or a liquid or a solid? The answer is
probably
"none of the above."
Knowing
that ether drag exists, how could ether be a solid? The answer is that if
ether
were a solid, the earth's gravity could locally "energize" the ether
as it
travels
through the ether, thus giving the illusion that there is physical ether drag.
But
there is a problem with this theory as I will now explain.
In
this discussion, the reader must keep in mind the difference between ether
(i.e.
"ethons") and the signal traveling through the ether
(i.e. light). This is
similar
to separating in our minds the difference between "air" and
"sound."
Consider
a fiber optic cable that spans 100 kilometers. During the time the fiber
optic signal
is traveling down the fiber cable, the earth and the
fiber itself are
moving
towards Leo at 370 kps. If ether were a solid, the earth and the fiber
optic
cable would be traveling through the ether at 370 kps. We know that the
signal
does not travel with the earth towards Leo, or else
the signal could not
stay
inside the cable for 100 km. But it is possible that the signal does
stay
within
the cable, while the cable itself travels through the ether at 370 kps.
This
is difficult to understand so let me provide a metaphor. Suppose you have a
long
cylinder of chicken wire (chicken wire is mostly air, the wires are very thin
and
are very far apart), which has a radius of 1 meter and a length of 100 km.
Suppose
this chicken wire is towed underwater by two tug boats at 10 kph. The
tube
of chicken wire is perpendicular to the direction of the tug boats. While it is
being
towed, someone shoots a water balloon down the length of the chicken
wire
at 30 kph. The chicken wire (i.e. the fiber optic cable) will travel through
the
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water
(i.e. the ether) as if the water wasn't even there. However, the water
balloon
(i.e. the signal) is confined to stay within the chicken wire. It cannot leave
the
chicken wire. This is an example of how to separate the ether (i.e. the water)
from
the signal (i.e. the water balloon). The mirrored surface inside of the fiber
optic
cable would act as the chicken wire. It would contain the signal, but would
travel
through the ether as if it weren't there.
Thus,
if there were no physical ether drag (i.e. ether was a solid), the cable (i.e.
the
chicken wire) would be traveling through the ether (i.e. the water) at the same
speed
as the planet. However, the signal (i.e. the laser beam) would be confined
to
staying within the fiber optic cable (i.e. the chicken wire).
However,
if a laser is fired in open-air there would be no mirrored fiber optic
cable
to contain the signal. It would make sense that the signal would attach
itself
to the ether, which is assumed to be a solid in this case. If so, we could
easily
detect that the signal is attached to the ether, not the earth (i.e. not to the
fiber
that is attached to the earth). In my first experiment, if this were the case,
I
would
have clearly gotten an ellipse! But my experiments make it clear that
the
signal
is not attached to the ether (this discussion is assuming that ether is a
solid).
It is for exactly this reason that I personally reject the theory that ether is
a
solid
(at least the ether that light travels through as a signal, there may be other
kinds
of ether). It makes logical sense that in open-air the signal would attach
itself
to the ether, not the earth, even if the earth energized the ether particles as
it
passed by them. In any case, that is my opinion.
The
priority of this book is to deal with the existence of ether, not to speculate
as
to
"what" it is. This book will refer to ether as a gas or liquid (i.e.
fluid), but this is
only
for convenience.
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