The chronology
of events that started our scientists down the wrong path starts back even
before Isaac Newton (1642-1727), all the way back to Tycho Brahe (1546-1601)
and Johannes Kepler (1571-1630) and Rene Descartes (1596-1650). This is not to say that the contributions
these men made to science was in any way wrong, but some of the thinking and
the logic went astray as it progressed down through the years.
Tycho Brahe was the last astronomer to
actually measure the motion of Mars without the use of a telescope, and he was
very good. He created his own
instruments for measuring the motion of Mars over the years and his accurate
measurements helped Johannes Kepler decipher the laws of planetary motion.
The laws of
planetary motion discovered by Kepler are as follows;
1)
The orbit of a planet is an ellipse with the sun at one
of the two foci.
2)
The line joining a planet and the sun sweeps out equal
areas in equal times.
3)
The square of the orbital period is equal to the cube
of the semi-major axis.
These laws and
Galileo’s (1546-1642) experiments were particularly helpful in Isaac Newton’s
development of the laws of motion and gravitation. However, it was Descartes who set the
precedent of man separating himself from reality in his famous, Cogito ergo sum, I think, therefore, I
am. He believed that one was only aware
of oneself and that the senses could deceive you, so all things must be deduced
logically. In this way man became an
observer of nature and not a participant and it continues that way even today
in modern science.
When Newton formulated his laws
of motion and gravitation it was based on the premise as an observer of nature
rather than a participant. Newton was aware of this separation as he
stated in his last sentence of the definition of inertia, “…Resistance is
usually ascribed to bodies at rest, and impulse to those in motion; but motion
and rest, as commonly conceived, are only relatively distinguished; nor are
those bodies always truly at rest, which commonly are taken to be so.” However, when Newton stated his laws he was unable to make
this separation. We will restate the
laws here and show how and why this makes a difference.
The third law
should have come first because the first and second laws are natural
consequences of the third;
1) Law 1- Every
body perseveres in its state of rest, or of uniform motion in a right line
unless it is compelled to change that state by forces impressed thereon.
2) Law 2-The alteration of motion is ever
proportional to the motive force impressed; and is made in the direction of the
right line in which that force is impressed.
3) Law 3-To every action there is always
opposed an equal reaction: or the mutual actions of two bodies upon each other
are always equal and directed to contrary parts.
Now the reason I
said the third law should have been first is by this simple formula
S+FA = S-FR
Or as the law is
stated the total sum of positive action forces, +FA, is equal to the
total sum of negative reaction forces, -FR, (or for every action
there is an equal and opposing reaction.)
So, when we look
at the first law we can see why this is a natural consequence of the third law
by this formula;
S(+FA)
- S(-FR) = 0.
This is the law
of equilibrium. When the total sum of
forces acting on a body is equal to zero it is said to be in a state of
equilibrium. And the law is stated this
way; when the total resultant, R, of forces acting upon a body is equal to
zero, the body is said to be in a state of equilibrium and the formula for this
is;
R = SF
= 0.
The letters are
in bold because forces have magnitude and direction and are considered to be
vector forces, which are represented by bold letters. But this could as easily be written in this
fashion;
R = S(+FA)
- S(-FR)= SFT = 0.
The first law is
the law of equilibrium as every college physics text book describes. And as we look at the third law we also see
how this is a natural consequence following the first law in this manner;
S(+FA)
- S(-FR) ¹ 0 = ±ma.
Or simply stated
the acceleration or deceleration is directly proportional to the “motive force
impressed” and inversely proportional to the inertial resistance of the
mass. As long the force is impressed or
continues and overcomes the inertial resistance of the mass, the mass will
continue to accelerate or decelerate.
When the force ceases to be impressed or becomes equal to the inertial
resistance the mass will once again maintain equilibrium, whether at relative
rest with the observer or in uniform linear motion with respect to the
observer.
It would not be
until Einstein (1879-1955) that we would realize that rest and uniform linear
or right line motion are observer dependent motions, although it would seem Newton was aware of this. If he could have stated his law of equilibrium
or first law with relativity in mind, it would have been more along these
lines;
Every body perseveres in its state of inertial
equilibrium, whether at rest or of uniform motion in a right line with respect
to the observer, unless compelled to change that state by forces impressed
thereon.
This places both
rest and uniform linear motion or uniform motion in a right line in its proper
category of equilibrium and observer dependent motions. This may not seem significant, but it is very
significant when it comes to the theories of relativity.
Of course, the
law of gravitation is Newton’s greatest insight he gleaned from Kepler’s laws
of planetary motion. In this law Newton expressed the
inverse square law where the strength of the field reduces proportionally at
the square of the distance between the two masses. It is this inverse square law, also used by
Charles-Augustin de Coulomb (1736-1806) when he expressed the law of attraction
of charges, which kept us going down the wrong path. It wasn’t until the latter part of the
twentieth century that we would discover this law is common to all fields. Note the similarity of the two formulas;
kqq’/r2 …
Gmm’/r2.
It was the
inverse square law which made physicists and Einstein assume that the law of
charges and the law of gravitation were derived from the same force. However, when
James Clerk Maxwell (1831-1879) unified the electric and magnetic fields with
his four equations he did not use neutral mass as a component of the
equations. And later when J. J. Thomson
(1856-1930) discovered what he called the theoretical electromagnetic radius of
the electron physicists assumed it to be the material radius of the electron
also. It was not. Just as the magnetic radius of a magnetic bar
is not the material radius of the bar itself, the electromagnetic radius of the
electron is not the material radius of the electron either although to this day
scientists still believe it to be so.
There is one
other experiment that has kept us going down the wrong path for over a century,
the Michelson-Morley experiment which was supposed to measure Earth’s velocity through
the ether.
The ether was a
concept that dates as far back as Descartes.
He believed that all planets and stars floated in something called
ether. Descartes even believed that all
matter was a vortex in the ether and that space was an extension of
matter. Space existed between two points
of matter and if there was no matter between which space could exist there was
just a void.
When Newton
formulated his laws of motion and gravitation he was able to explain the motions
of the planets without the necessity of the vortexes, so he discarded
Descartes’ vortex concept. His laws
could explain all the motions of the planets except for Mercury’s precession
around the sun. It took Einstein’s general
theory of relativity to explain it, even though he fudged his equations to do
it.
Albert Michelson
(1852-1931) and Edward Morley (1838-1923) believed they could measure the
velocity of the Earth through the ether with a device they invented called an
interferometer. It sent split beams of
light down two legs, perpendicular to one another, of the interferometer and
then brought them back together to measure any interference that may occur due
to Earth’s motion through the ether.
They discovered none and therefore concluded there was no ether and that
remains the conclusion to this day. The
experiment, however, was designed to fail because it only measured the beams of
light parallel to the surface of the Earth and had two-way travel (any energy
loss going one way would be gained coming back the same way.). They never thought to measure the beams
perpendicular and parallel to the Earth at the same time, with one-way travel, which
would have determined whether the Earth was a vortex in the ether or not. This was not done until 1960 with the
Pound-Rebka experiment.
This was the
common consensus of the physics community under which Einstein labored when he
began working on his theories of relativity; there was no ether and mass is
wholly electromagnetic.
The title of his
original paper on relativity, ON THE ELECTRODYNAMICS OF MOVING BODIES, gives
you insight that he believed just as the physics community of his day did, that
all mass is electromagnetic in nature. He
continues this philosophy into his general theory as well as he states at the
beginning of section 14, “We make a distinction between “gravitational field”
and “matter” in this way, that we denote everything but the gravitational field
as “matter.” Our use of the word
therefore includes not only matter in the ordinary sense, but the electromagnetic
field as well.” Matter is not wholly
electromagnetic in nature as we have only recently discovered.
When Einstein
established the upper limit of velocity at the speed of light he was referring
to the speed at which an electromagnetic field could accelerate a charged
particle. James Clerk Maxwell had shown
in his equations that the magnetic field and the electric field could only
travel at the speed of light through a vacuum and that light was
electromagnetic in nature. Therefore,
Einstein supposed that if all mass was electromagnetic in nature also it could
only be accelerated to the speed of light.
In his 1905 paper he makes these remarks about ponderable masses, “…We
remark that these results are also valid for ponderable material points,
because a ponderable material point can be made into an electron (in our sense
of the word) by the addition of an electric charge, no matter how small.”
He goes on to
state in the next paragraph, “…If an electron moves …under the action of an
electrostatic force…the energy withdrawn from the electrostatic field must be
put down as equal to the energy of motion W of the electron….” And he then goes on to formulate his equation
W = mc2{[1/(1-v2/c2)]-1}. But then he goes further to state,
“…Velocities greater than light have—as in our previous results—no possibility
of existence.
This expression
for the kinetic energy must also, by virtue of the argument stated above, apply
to ponderable masses as well.”
This argument
would be valid if the electron was the only charged particle and all mass was
electromagnetic in nature, but Einstein knew nothing of any other charged
particles like the proton, because it wasn’t discovered until 1919. By adding a proton to a ponderable mass that
already has a negative electric charge one will nullify that charge and make
the mass neutral and unable to be accelerated by an electromagnetic field. (That is why neutrons, neutral particles
discovered in the nucleus of atoms in 1931, are the functional particle in
atomic bombs. They are not deflected by
an electromagnetic field.)
However, in his
1911 paper, ON THE INFLUENCE OF GRAVITATION ON THE PROPAGATION OF LIGHT, he
makes a different argument for the way a neutral mass can gain energy that is
not accelerated by an electromagnetic field.
Here is his argument…;
“1. The energy
E, as measured in S2, is emitted in the form of radiation in S2,
towards S1, where, by the result just obtained, the energy E(1+gh/c2),
as measured in S1, is absorbed.
2. A body W of mass M is lowered from S2
to S1, work Mgh being done in the process.
3. The energy E
is transferred from S1 to the body W while W is in S1. Let the gravitational mass M be thereby
changed so that it acquires the value M’.
4. Let W be again raised to S2, work
M’gh
being done in the process.
5. Let E be transferred from W back to S2.
The effect of
this cycle is simply that S1 has undergone the increase of energy Egh/c2,
and that the quantity of energy M’gh- Mgh has been conveyed to the system in the
form of work….
The increase in gravitational
mass is thus equal to E/c2,
and therefore equal to the increase in inertia mass as given by the theory of
relativity.”
Hence
mass can gain energy from the acceleration of a gravitational field also, and
no one knows what the upper limit of acceleration of a gravitational field is? It is obvious it can accelerate things faster
than light or why else do we have “black holes?”
Of
course, Einstein was off by a factor of one-half in his equations in this 1911
paper. When he figured out the
perihelion orbit of Mercury in his 1915 paper he realized that Mercury needed
an escape velocity to go from a lower orbit to a higher orbit, so he simply
started with escape velocity rather than orbital velocity in his 1915 paper on
the perihelion of Mercury. This gave him
the needed factor of two. In his general
theory in equation 49 he simply introduces a factor of a -2k and explains in a
footnote that he will explain the introduction of this factor later. And indeed, he does, it was simply to make his
equations in the general theory work out properly.
I am surprised
that no other physicist has taken note of this because in section 16 in the
last paragraph he explains his reasoning; “…It must be admitted that this
introduction of the energy-tensor of matter is not justified by the relativity
postulate alone. For this reason we have
here deduced it from the requirement that the energy of the gravitational field
shall act gravitatively in the same way as any other kind of energy. But the strongest reason for the choice of
these equations lies in their consequence, that the equations of conservation
of momentum and energy, corresponding to equations (49) and (49a), hold good for
the components of the total energy….”
The equation he fudged.
Although the
general theory is a beautiful mathematical treatise it has faulty logic, but
Einstein cannot be blamed for this. He
expressed the current philosophy of the day among physicists and the electron
was the only known particle when this paper was published in 1916. As I said before, the proton was not
discovered until 1919 and the neutron in 1931, so at the time he was almost
right.
Even today we
continue along this wrong thinking. Physicists keep virulently studying their
trees, each locked into his special unique study, trying to prove that his tree
is the only one that matters, and they keep overlooking the forest.
The aliens have
long since passed this ignorance and continue to watch us in amusement. They
will not choose to reveal themselves until we have climbed out of this quagmire
of thinking.