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In 1887, A. Michelson and E. Morley conducted an experiment to attempt to discover the means
by which light energy travels. Based upon an earlier statement of James Clerk Maxwell
(paraphrased), that if a light propagating medium existed, the time required for a ray of light to
travel from a Point A to a Point B and back to Point A would vary if the two points (A and B),
together, underwent a displacement through a light propagating medium,(1) Michelson and
Morley undertook to measure the earth's movement (displacement) relative to light, in order to
investigate the possibility of the existence of a light propagating medium. In their experiment,
Michelson and Morley proposed, as their initial premise, that a sea of aether particles permeated
all space and the interstices of matter, and that light was propagated through the medium of this
hypothetical aether. They also proposed (in reference to Maxwell's statement) that by
comparing the earth's movement relative to light, the existence of aether could be demonstrated,
and the movement of both the earth and light through the aether could be measured. In a
mathematical formulation of this premise, Michelson and Morley assigned the given value c for
the proposed movement of light through the hypothetical aether; and, for the proposed
movement of the earth through the hypothetical aether, they assigned the given value v (also
theorized as equivalent to an aether wind flowing past the earth in a direction opposite to the
earth's movement through the hypothetical aether, or equivalent to the earth's movement
through space). However, the assigning of the mathematical symbols c and v to represent given
values in this experiment characterizes the basic logic flaw inherent to this type of scientific
investigation: having no actual evidence of the existence of the hypothetical aether, nor of
motion through the aether, Michelson and Morley assigned given values for the unknown factors
they were trying to determine! Michelson and Morley, conducting an experiment to investigate
the possibility that light energy required a physical medium for its travel, and the possibility of
the existence of the hypothetical aether, proceeded to abstractly represent their assumptions,
mathematically, as givens. In other words, they assumed the existence of aether and movement
through the aether, as givens, in order to determine the existence of aether. Realistically, how
could Michelson and Morley assign "given" values to the unknown values they were trying to
determine? In what can only be referred to as quintessential, speculative mathematics,
Michelson and Morley had tailored their mathematical formulation to fit their assumptions and
expectations; and in doing so, not only rendered their own mathematics invalid and
compromised the integrity of their experiment, but, by basing their mathematical formulation and calculations on speculation and assumption, Michelson and Morley had, in essence, constructed a mathematical house of straw.
In effect, in mathematically assigning movement through the hypothetical aether as a "given" in
order to determine movement through the aether, Michelson and Morley created a type of
mathematical virus. Looking at the application of the mathematics in this experiment, it
becomes evident that the use of speculative mathematics creates a mathematical logic loop of
impossibility. Again, Michelson and Morley assigned c to represent the movement of light
through the hypothetical aether, and assigned v to represent the movement of the earth through
the hypothetical aether. They then went on to compare c and v in mathematical equations
(mathematically comparing hypothetical relative motion of the earth and light with respect to
aether), with the intent of calculating the movement of the earth through the hypothetical aether.
Herein lies the inconsistency in their mathematical logic:
The looked for result: the movement of the earth through the hypothetical aether, is
already assigned as the given v the movement of the earth through the hypothetical
aether.
The mathematical symbols c and v could not represent both given and unknown values in the
same experiment the existence of aether and movement through the aether could not be both a
given and an unknown. Michelson and Morley, by mathematically comparing the respective,
proposed "given" values of the movement of the earth, v , and light, c , through the hypothetical
aether, in order to then calculate v (the movement of the earth through the aether), had created
the mathematical equivalent of a dog chasing its tail. Using v to determine v is a mathematical
absurdity. Using a mathematical value, whether given or unknown, to determine itself, defies
mathematical logic. Although the type of mathematics used in the Michelson-Morley
Experiment will give a result, the result is unrepresentative of any reality, absolutely
meaningless; and, of course, there can be no hope of reconciling the result of this type of
calculation with any empirical result. To proceed to attempt to verify this type of calculation
with experimentation becomes an empirical absurdity.
Within the context of the mathematical formulation of the Michelson-Morley Experiment, regardless of what the mathematical symbols c and v are defined as representing,
The experiment, mathematics, and logic of the Michelson-Morley Experiment are dependent
upon the existence of a hypothetical aether, i.e., something, other than light and the earth (that
both light and the earth are moving relative to), that would offer a means of reference and
comparison. Without the existence of the hypothetical aether, the experiment can only expect
negative, or null results: empirical comparisons of light and the earth cannot show relative
motion to aether if the aether does not exist. If the hypothetical aether does not exist, the
mathematics of the Michelson-Morley Experiment concerning the aether can only fall under the
order of predication and speculation, and cannot be fulfilled by empirical results.
Ptolemaic
The assumption of unknown values as given values and the use of values to determine
themselves is the defining mathematical logic basis of the Michelson-Morley Experiment; and
their use of mathematics serves to illustrate the problem that can arise when the abstract
language of mathematics is held to be a truth unto itself, rather than a language of abstract
representation a means of expression that can be flawed in application and basis, and be
limited and biased by the extent of understanding. Michelson and Morley, in their mathematical
formulation, may have truly represented their thoughts and ideas, but, at the same time, did not
truly represent reality. In a sense, a parallel can be drawn between the 19th century mathematics
of Michelson and Morley concerning belief in a hypothetical aether, and the 2nd century
mathematics of Claudius Ptolemy concerning belief in a geocentric universe.(2) Although
intricately executed and developed in themselves, the mathematics of Michelson and Morley
(concerning aether) and the astronomical mathematics of Ptolemy (concerning a geocentric
universe) were both flawed in their initial, assumptive premise. Though Ptolemy was aware of
the general size and shape of the earth, and had a general idea of how fast the earth would have
to be moving to account for the apparent relative movement occurring between the earth and the
other celestial bodies; he held firm to the belief that the earth was the immobile hub, the center,
of the universe that all the stars and planets in the heavens revolved about the earth and
developed his mathematics upon this premise. Like Michelson and Morley, Ptolemy was able to
truly express his beliefs with the language of mathematics, but also like Michelson and Morley's
mathematics (concerning the aether), Ptolemy's astronomical mathematics (concerning a
geocentric universe), not founded upon a truth, were neither true in themselves, nor rendered a
true result his basic premise invalidated his entire mathematical structure. The Ptolemaic
system of mathematics involving the use of the ecliptic, deferent, epicycles, eccentrics, and
equants could no more, in actuality, convert elliptical movement of the earth about the sun to
circular movement of the universe about the earth, than Michelson and Morley's mathematical
formulation of movement of the earth and light relative to a hypothetical aether could create the
existence of a non-existent aether, or movement through a non-existent aether. The problem
characteristic to both is a flaw in the basic mathematical premise, compounded by the belief in
the language of mathematics as an absolute truth unto itself. As Ptolemy's astronomical
mathematics exerted a profound influence on the development of mathematics and science from
the 2nd century until the 16th century, similarly, Michelson and Morley's mathematics concerning
the hypothetical aether (and relative movement occurring between the earth and light with
respect to aether) has profoundly affected the development of mathematics and science of today.
Over the years, since the Michelson-Morley Experiment was conducted, the attempt to reconcile
and relate Michelson and Morley's speculative, mathematical assumptions (concerning the
hypothetical aether) to empirical realities has thrown open the floodgates to interpretive chaos.
For example, rather than the results of their experiment leading to the conclusion that the
hypothetical aether did not exist and, if aether did not exist, it would, of course, be impossible to
measure the earth's motion relative to the non-existent aether (and there was an inherent flaw in
applying mathematical givens to a non-existent aether); the lack of any correlation between the
speculative mathematical projections and the (negative) empirical results of their experiment has
led to the relativistic belief that it is not possible to compare the movement of the earth relative
to light. Essentially, the logic basis of the Michelson-Morley Experiment has become the logic
basis of Relativity.
Relativistic
There are two notable, mutually exclusive relativistic theories that (in using the Michelson-Morley Experiment and mathematical formulation as a basis to develop their own theories) exemplify relativistic theory and mathematics:
The speed of light has the same value for all observers, independent of their motion or the motion of the light source.(4)
Where Ptolemy theorized a geocentric universe, Einstein (upon the basis of the Michelson-Morley Experiment) theorized a "light-centric" universe; or, with the measurement of light theorized as a constant for all circumstances of motion, and therefore, all matter, energy, and space expanding and contracting to conform to the individual observer's motion, in essence, Einstein theorized a "self-centric" universe, where the entire universe of the individual conforms to the individual's motion.
Equivalence?
All the inequable motion occurring in the universe, all the relative movement, creates a mathematical and scientific problem. Similar to the perceptual distortion and disorientation that can occur when beginning to move when traveling on a train or passing another train or platform, "Is the other train or platform moving past us, or are we moving past the other train or platform?", with relative motion there can be an equivalence of appearance, but not of actuality. Are the stars moving, is the earth moving, or are both moving relative to each other? Relative motion presents a problem of reference basis. What do we measure relative to; and how can it be determined what is moving relative to what? This was the problem faced by, and exemplified in the mathematics of both Ptolemy and Relativists. Ptolemy perceived all apparent relative motion of the celestial bodies as equivalent to, and to be mathematically regarded as, absolute motion with respect to the earth; a mathematical perspective which he supported (in theory) with assumptions made concerning comparative motion. For example, in Ptolemaic, geocentric theory and mathematics the earth was considered as the immobile hub and center of the universe, because it was assumed that if the earth moved:
a. the clouds would be outstripped by the earth's motion,
b. objects and animals on the surface of the earth (cows, etc.) would be left hanging, suspended in the air or space as projectiles, and,
c. an object dropped would always fall to one side of a line perpendicular to the earth's surface, indicating both the speed and direction of the earth's (and the observer's) travel through space (an experiment of comparative motion that also received negative or null results).
This Ptolemaic belief and assumption that comparative motion would demonstrate the earth's
relative, dynamic relationship with space was taken up, in a different form, by Michelson and
Morley (and relativists); with their assumption that comparisons of the earth and light (i.e.,
comparisons not of objects and the earth, but rather, of the earth and energy) should demonstrate
the earth's movement in relation to space. Where Ptolemaic negative or null results received
from experiments of comparative motion were promulgated as "proof" of a geocentric universe,
similarly, in modern-day mathematics and science, the negative or null results received in
dynamic comparisons of the earth and light (as in the Michelson-Morley Experiment) are
currently promulgated as empirical "proof" that it is impossible to measure motion relative to
light, and that light is an absolute value in any circumstance of relative motion in other words,
as the "proof" and mathematical basis of relativistic, "light-centric" doctrine.
Here, it must be pointed out that what are referred to as "negative or null" results, in the
respective Ptolemaic and Michelson-Morley/relativistic belief systems concerning relative
motion, are only "negative" with respect to scientific and mathematical assumptions. In fact,
with the removal of the assumption that laws of mechanics should apply to space, these results
can be viewed as "positive". What Ptolemy, Michelson and Morley, and theories and
mathematics of Relativity have all consistently and "positively" demonstrated is that, as yet,
there has not been found a means to compare movement relative to space nor to quantify space;
and that experiments of comparative motion (with sound, falling objects, light, the earth, etc.) do
not indicate motion in relation to space, nor absolute position or motion. (To make a distinction;
Foucault's pendulum demonstrates movement of the earth in relation to the movement of a
pendulum, but does not demonstrate either the movement of the earth or the pendulum in
relation to space.)
In essence, the Theory of Relativity, like the geocentric theory of Ptolemy, demonstrates, in the language of mathematics, the inability to assign absolute motion and position. Everything is relative. So far there has not been discovered an absolute physical point of origin or reference. Therefore, as Ptolemy's choice to assign the earth as an absolute from which to measure all relative motion invalidated his mathematics; similarly, Relativists choice to assign the movement of light as an absolute with respect to any other circumstance of motion has also invalidated their entire mathematical structure.
Relativists declare that: The introduction of a "luminiferous aether" will prove to be superfluous ... as the view here to be developed will not require an "absolutely stationary space" provided with special properties, nor assign a velocity-vector to a point of empty space in which electromagnetic processes take place.
They also declare that: "We now imagine space to be measured from the stationary system K by
means of the stationary measuring- rod, and also from the moving system k by means of the
measuring rod moving with it; and thus we obtain the co-ordinates x, y, z ..." (5)
In these two statements, Relativists admit to not being able to assign a co-ordinate system and velocity vector in relation to intangible or "empty"space; but, then, somehow, by the assigning of, and comparison of, "stationary" and "moving" matter, they expect to establish a stationary co-ordinate system to measure intangible space and movement in reference to intangible space. This obvious contradiction has been rationalized in Relativistic theory by the introduction of time as simultaneity. Relativists theorize that somehow the synchronizing of events will give absolute position in space. They theorize that by comparing two intangibles (time and space which cannot be independently, tangibly measured) to each other, somehow they can then establish, not only a tangible measurement of both time and space, but, also, the measurement of absolute (stationary) position and movement of matter and energy.
The obvious problem with this particular part of relativistic theory is that simultaneity does not
indicate position. An event can happen simultaneously in London and New York: Simultaneity
does not indicate position in space.
The relativistic mathematics and theory concerning simultaneity, are simply another result of the mathematical virus first created and introduced in the Michelson-Morley Experiment of 1887. With the incorrect assigning and use of c and v (hypothetical velocity of light and the earth in reference to hypothetical aether and intangible space) as given mathematical values in the Michelson-Morley Experiment (and subsequent relativistic equations), Relativists have created and perpetuated the equivalent of a mathematical virus: A mathematical wild goose chase, which can be avoided by the understanding that absolute position and movement can not, as yet, be measured; and that dynamic comparisons of energy (light), the earth, rods, clocks, observers, etc. do not indicate absolute position or movement.
Written by D. and S. Birks
1. H. A. Lorentz, A. Einstein, H. Minkowski, and H. Weyl, The Principle of Relativity, (Dover Publications Inc., New York, 1952), p. 3.
2. Claudius Ptolemy, The Almagest, Great Books of The Western World, (Encyclopedia Britannica, Chicago, 1952)
3. Lorentz, The Principle of Relativity, pp. 3-7.
4. Raymond A Serway and Jerry S. Faughn, College Physics, (Saunders College Publishing, New York, 1985) p. 676.
5. Stephen Hawking, On The Shoulders of Giants, (Running Press, Philadelphia, 2002), pp. 1168-1172