The known effect in the relativity as gravitational lens could be an optical effect produced by the crystals.
This work shows that the data viewed in the experiment
of 1919, was due to the effect of the crystals of water at the top of the
atmosphere, and not to the curvature of space-time caused by the sun. Alberto
Einstein formulated his theory of general relativity in 1915, but this theory
go to science as a true fact then of experiments conducted in 1919, on the
basis of this theory accepted scientifically was developed the theory of the
big bang and almost all explanations in astronomy. The scientists who made the
experiment during the eclipse of may 29, 1919. They believed that the
displacement of the stars in the sky, was due to the curvature of space time
due to gravity of the sun, and not by the optical effect produced by the water
crystals at the top of the atmosphere, Because this effect of the crystals at
the top of the atmosphere was not known for the time of the experiment.
Introduction;
The solar eclipse of May 29, 1919, it was the
scientific event more mediatic of the 20th century, which presented as the
experiment that would give a winner between the two currents of scientific
thinking of the epoch, between Newton and Einstein old science and the new
science. And based on two similar theories, were prepared to explain the data
of the experiment conducted by the famed astrophysicist sir Arthur Eddington.
The data of the experiment have been questioned many
times, by some scientists, but analyzing the data from a modern perspective, we
can say, that neither of the two theories explains satisfactorily the
displacement of all the stars in the sky, and as we understand the words of
Albert Einstein, "only 12 wise men in the world can understand
relativity". But a current understanding of the effect lens, produced by
the water crystals at the top of the atmosphere, could be the answer to the
explanation of the displacement of the light from the stars in the sky, which
are seen in the data of the experiment of the 1919 eclipse.
What is gravity? It is the force of attraction exerted by the
Earth and other celestial bodies on bodies or objects posing there. It is also
known as gravity or gravitational force.
What is gravitational lens? In Astrophysics a gravitational lens, also known
as gravitational lens, is formed when the light from brilliant and distant
objects like quasars is curved around a massive object (such as a Galaxy)
between the emitting object and the receiver.
Gravitational
lenses were predicted by Einstein's general relativity theory. In 1919 it is
failed to prove the accuracy of the prediction. During a solar eclipse the
astronomer Arthur Eddington observed is how curving the trajectory of the light
coming from distant stars passing close to the Sun, producing an apparent
displacement of their positions.
The TRG
predicts that light when passing close to a large gravitational field (for
example, near a star), its trajectory would bend, as is the case with a body
that runs nearby.
When a ray of light passes close to the Sun its
trajectory is affected since space-time is strongly curved in a setting of the
Sun.
How was the experiment, and that it was observed in the solar eclipse of 1919?
“STARLIGHT BENT BY THE SUN´S ATTRACTION”: THE EINSTEIN THEORY.
THE ILLUSTRATED LONDON NEWS, Nov. 22, 1919. - 815
Writing in our issue of November 15, Dr. A.C.
Crommelin, one of the British observers, said: “The eclipse was especially
favourable for the purpose, there being no fewer than twelve fairly bright
stars near the limb of the sun. The process of observation consisted in taking
photographs of these stars during totality, and comparing them with other
plates of the same region taken when the sun was not in the neighborhood. Then
if the starlight is bent by the sun’s attraction, the stars on the eclipse
plates would seem to be pushed outward compared with those on the supporting.
(Einstein’s theory)… it is of profound philosophical interest. Straight lines
in Einstein´s space cannot exist; they are parts of gigantic curves,”
Eddington, who led the experiment, first measured the
“true” positions of the stars during January and February 1919. Then in May he
went to the remote island of Príncipe (in the Gulf of Guinea off the west coast
of Africa) to measure the stars’ positions during the eclipse, as viewed
through the sun’s gravitational lens.
If we look at the picture we see that the results are
contrary to the force of gravity, which is an attractive force and not
repulsive.
But
that said the scientists of the time to this image;
By Brown (1967), “Eddington was based this assessment
in a premature of the photographic plate. Initially, the star doesn't
"seem" bend as they should, as was required by Einstein, but then,
according to Brown, the unexpected happened: several stars were then observed
bending in a direction transverse to the direction expected, and other more
doubling in a direction opposite to that predicts the relativity”.
According to Poor.1930, "Really the displacements
of the stars in minimal grade do not present the similarities foreseen by Einstein;
neither of the direction, nor of the sizes, nor the grade of its fall with
distance of the Sun".
In some of the criticisms of this scientist to
experiment told us something key, which helps to confirm that what seen in the
picture, is the product of the optical effect by crystals
Poor:
"The mathematical formula, with which Einstein calculated the deflection
of the sun's ray’s interns on the edge of the sun, is a well-known formula of optics".
If the starlight is bent by the sun’s attraction, the stars
on the eclipse plates would seem to be pushed outward compared with those on
the supporting.
The explanation that we see in the 1919 illustration
shows a shift towards the outside of the Sun opposite to the force of
attraction that should produce gravity.
McCausland (2001) quotes the former editor of the journal
Nature, Sir John Maddox:
"What is not so well documented is that measurements in 1919 were not very accurate"
"What is not so well documented is that measurements in 1919 were not very accurate"
"Despite the fact that the experimental evidence for relativity seems to have been very weak in 1919, enormous fame of Einstein has been kept intact and his theory since then has been considered one of the greatest achievements of human thought"
The BIPP asked:
"Was this the deception of the century?" and
then said: "the relativity of the Eclipse of 1919 the Royal Society report
deceived us for 80 years!"
McCausland said, "In the author's opinion, the confident announcement of decisive confirmation of Einstein's general theory in November 1919 was not a triumph of science, as it is often portrayed, but it is one of the most unfortunate incidents in the history of science of the 20th century".
McCausland said, "In the author's opinion, the confident announcement of decisive confirmation of Einstein's general theory in November 1919 was not a triumph of science, as it is often portrayed, but it is one of the most unfortunate incidents in the history of science of the 20th century".
Results;
Based on the results of the plates of the experiment of 29 May 1919, where we see an effect contrary to the displacement that would produce the gravity. The criticisms leveled at experiment by the scientists of the time. And knowing that the scientific community was not aware of the effect of the crystals at the top of the atmosphere, that this effect is often seen in nature, In addition to that the mathematical formula that Alberto Einstein calculate the deflection of light around the Sun, was a formula of optics, It can be said that the effect known as gravitational lens, is in reality a bad interpretation of the data of the experiment of 29 May 1919.
Conclusion;
As conclusion it can be said, what we know as effect
gravitational lens, which we learned in the experiment of May 29, 1919, was in
reality an optical effect produced by the water crystals at the top of the
atmosphere. Also mathematically it is possible to be said that there are the
same effect, because the mathematical formula with which Albert Einstein
calculated the deviation of the light of the stars around the sun, was a
mathematical formula of the optics, the same that is used to calculate the
optical effect of the light in the crystals.
Bibliography;
http://www.wired.com/2009/05/dayintech_0529/
http://conceptodefinicion.de/gravedad/
https://es.wikipedia.org/wiki/Lente_gravitacional
http://www.iar.unlp.edu.ar/divulgacion/art-difu-26.htm
http://eclipse-maps.com/Eclipse-Maps/History/Pages/1911-1920.html
http://es.metapedia.org/wiki/Albert_Einstein#cite_ref-10
http://www.bibliotecapleyades.net/esp_einsteinsp.htm
The deflection of light as observed at total solar
eclipses Authors: Poor, Charles Lane Publication: Journal of the Optical
Society of America, vol. 2, issue 4, p.173 Publication Date: 04/1930 Origin:
work
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