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Originally posted by manontrial
So, the Earth is affected by the sun's gravity and it is also affected by the moon's gravity.
Doesn't take a dumbass to figure out that when the moon is directly between the Earth and our sun we will be affected by their combined gravity.
Thanks, did you also know that when you put your hand into water, it'll get wet?
In the most recent September 19 correspondence from Professor Allais, he indicated: "In these types of experiments one needs to proceed slowly. On the whole, the repetition of these experiments offers NASA an exceptional interest."
Van Allen was clearly not inclined for a post mortem on the point. He told the Des Moines Sunday Register: “There’d been just a slight error in our quick estimate of the satellite’s initial speed and period of revolution.”
Originally posted by manontrial
So, the Earth is affected by the sun's gravity and it is also affected by the moon's gravity.
Doesn't take a dumbass to figure out that when the moon is directly between the Earth and our sun we will be affected by their combined gravity.
Thanks, did you also know that when you put your hand into water, it'll get wet?
While relativists have always been partial to the curved space-time explanation of gravity, it is not an essential feature of GR. Eddington (1920, p. 109) was already aware of the mostly equivalent “refracting medium” explanation for GR features, which retains Euclidean space and time in the same mathematical formalism. In essence, the bending of light, gravitational redshift, Mercury perihelion advance, and radar time delay can all be consequences of electromagnetic wave motion through an underlying refracting medium that is made denser in proportion to the nearness of a source of gravity. (Van Flandern, 1993, pp. 62-67 and Van Flandern, 1994) And it is now known that even ordinary matter has certain electromagnetic-wave-like characteristics. The principal objection to this conceptually simpler refraction interpretation of GR is that a faster-than-light propagation speed for gravity itself is required. In the context of this paper, that cannot be considered as a fatal objection.
If the shadow were static or slowly moving, air would flow deep into the eclipse zone until pressures equalized again for the higher density of air mass present. The greatest density would be found in the center of the shadow where the eclipse is total. However, reality is far from a static situation...
The result is that warmer air from outside the eclipse zone is continually trying to rush toward the cooler regions just inside the shadow, increasing the total mass of air over the ground below.
Originally posted by Phage
reply to post by XPLodER
Sorry. No, it isn't.
First you were talking about gravity being lensed (focused) by mass and now about light being lensed by gravity and somehow being accelerated in the process. You are speaking as if light behaves the same way as gravity does.
Mass bends space time which causes light to "bend". Gravity is the result of that bending.
edit on 6/4/2011 by Phage because: (no reason given)
Originally posted by Phage
reply to post by XPLodER
Gravity doesn't affect the speed of light. In fact, it would increase the time it takes light to reach it's destination a bit. A curve is longer than a straight line and requires longer to traverse.
The mass of the Moon is too small to produce any appreciable effect on light.
The detailed behavior of both pendulums over the eclipse period shown in
Fig. 8 was remarkable. During the period before the eclipse no particular
disturbance was detected, and the 10-minute precession amounts of both
pendulums generally exhibited the same behavior. After the local eclipse
maximum the precession amount of the automatic pendulum started to
increase steadily, while that of the manual pendulum started to decrease
steadily. This trend continued unabated until about forty minutes after
fourth contact, when the sense of change of the precession of the manual
pendulum changed to be the same as that of the automatic pendulum.
After this both pendulum precession amounts marched together in almost
perfect lockstep, decreasing until about 12:15, then executing an abrupt
spike upwards and back downwards which ended at about 13:15, and then
increasing until about 14:20, at which point the manual pendulum
precession again reversed its trend. It is clear from the calmness of the
environmental data that these phenomena were not linked to any variation
of meteorological conditions.
General. The outstanding feature of the results is that, although the types
of apparatus used by our three independent teams were quite different, in
all three cases, for each apparatus, the most outstanding peculiar effect
was seen after the visible eclipse had ended. This was not the pattern that
might be expected beforehand: a priori one would suppose that, if any
anomalous effect were to be observed, it would occur during the visible
eclipse, when (from the point of view of the experimental apparatus) the
body of the Moon partly covers the Sun and intercepts any influence
- 14 -
progressing linearly from the body of the Sun. Of course, a third possibility
is that an anomalous effect might be observed before the visible eclipse
starts, and actually that was part of the pattern seen during independent
gravimeter
still, three completely independent experiments were
conducted in three separated locations, and the result of each was that the
most significant deviation occurred substantially after the visible eclipse. If
the observed deviations of all three sets of equipment were random events
due to faulty equipment or poor operation and thus were not attributable to
any common external factor,
The sealing of the housings rules out any possibility of interference due to air currents or humidity variations, and improves the thermal stabilization.