errrrrrrrrr. careful that you don't get in trouble....Well here's the thing. It is thinking that you understand stuff which gets people in trouble. Their minds shut like steel traps.
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Can you define it?
errrrrrrrrr. careful that you don't get in trouble....Well here's the thing. It is thinking that you understand stuff which gets people in trouble. Their minds shut like steel traps.
For future reference, General Relativity and Special Relativity have no bearing on stellar metamorphosis. In stelmeta it does not matter. SM does not claim to explain gravitation or distances between stars, it only covers the actual evolution of stars themselves into life hosting stars mislabeled "planets". The whole argument of GR/SR is actually moot in this thread.Lloyd wrote:Regarding Relativity
(It's Real!)
The following is from Mathis' paper, Relativity Demystified, at http://milesmathis.com/rel4.html and it seems that he does a rather good job of demystifying it.
. . . Einstein, the high priest, understood Relativity in large part, but his explanations only confused the rest of the world. And even Einstein did not understand Relativity in full. That is why he was not able to simplify it. Relativity is much more transparent than we have been led to believe.
. . . The reason the receding train looks shorter [length contraction] is that the length of the train is determined by a single image. Unlike the wave [lightwave], which is built of a series of images, the length is determined by one image only. In other words, we could take a picture with a real camera, and using that one image, we could determine the apparent length of the train. (And, yes, that one image would be distorted by Relativity. That real picture, taken by a real camera, would be distorted by Relativity.) Now, that one image is made up of all the light reaching us at the same instant, from all the points on the train. Since all the light is moving the same speed, the light from more distant points on the train must be earlier light. To say it another way, all the light is reaching US at the same time, to make the image, so it can’t have left all points on the train at the same time. If we work backwards from our eye, and go the speed of light for x seconds, we can reach some points on the train, but not others. This means that our image is made up of older and newer light. For instance, if the light from the nearest parts of the train was emitted at t = .0002s, then the light from the farthest parts of the train might have been emitted at t = .0001s. The light has farther to go, so to reach us at the same time, it had to be emitted earlier. If it was emitted earlier, then it was emitted when the object was not quite as far away. Therefore, the far end of the object will appear closer than it is. Therefore, the object will appear smaller or shorter than it really is.
- That was a bit difficult, I realize. It is probably the most difficult thing to understand about Relativity, and it has been misunderstood and misinterpreted millions of times. If you can make sense of that paragraph, you can make sense of any of the subtleties of Relativity.
- As one more aid to understanding, I will point out that this length contraction is exactly the opposite of the contraction of sound. . . .
Well, some parts of it are.Lloyd wrote:Regarding Relativity (It's Real!)
E=MC2 has never been proved to my satisfaction. The EM radiation released in a nuclear explosion comes from vibrating protons in the disrupted nucleus. This doesn't affect mass. Splitting an atom releases EM radiation. Fusing atoms releases EM radiation. If every time a nuclear reaction occurred, and energy was released, and thus the atoms lost mass, I don't see why there would still be any mass left in the Universe, since we have every reason to believe that every single atom in the Universe has been through this process many times. So something doesn't add up. I tend to think that EM waves are created simply by the movement of charged particles, with no effect on mass. For example, a wood stove doesn't lose mass just because the atoms in the crystal lattice are vibrating due to heat, and emitting infrared radiation. Analogously, a speaker cone doesn't lose mass because it is creating sound waves in the air. Energy and mass are two different things. IMO, the mass differences due to fission/fusion are evidence of some sort of particle other than protons and neutrons.oz93666 wrote:But to return to the main subject, I'm totally willing to believe it's all corrupted, but surely some of relativity is good? E=MC2? a hydrogen bomb does go bang after all...
Yes, we can check this ourselves. But just because some ad hoc formulas in general relativity "predict" this doesn't mean anything. Good scientific method involves the elimination of all known forces before concluding that something new has been discovered. A gravitational anomaly was detected. OK, so are there any other forces operative at the macroscopic level? Yes -- the electric and magnetic forces. Were those checked? No. Those should be checked. If either of those can account for the anomaly, the problem is solved, and Occam's Razor will do the rest. How should we proceed? Precession takes two forces: angular momentum, and then a force applied along the axis. For example, when a spinning top starts to precess, the angular momentum comes from the spinning, and the precession comes from the force of gravity, which is trying to get the top to lay down on its side. So we should be looking for an electric or magnetic force applied parallel to the axis of rotation. Maybe there is a galactic magnetic field that is accelerating or decelerating the solar system. Different degrees of precession in different planets might match up with different strengths of planetary dynamos. Or different degrees of planetary charge. I haven't pursued this, but that's where I'd start. And until that work has been done, I'll accept no fancier solution.oz93666 wrote:...and you haven't dealt with the Perihelion precession of Mercury can't we check that ourselves?
Be that as it may, the question of the true status of general relativity within science should be assessed. Soon after the theory first appeared, it was credited with success for solving the old problem associated with the shift of the perihelion of Mercury. But why? A satisfactory explanation had already been provided in 1898 by a German schoolteacher, P. Gerber, who published his findings in Zeitscrift für Math u Phys. (vol. 43, p 93). For some reason this seems to have been ignored even though it concerned a well-known outstanding problem and Gerber had published in a highly prestigious journal. Of course, the dubious expeditions of 1919 which led to the claim that the theory correctly predicted the bending of light rays were possibly the clincher as far as popular acclaim was concerned. However, is general relativity required to explain these phenomena? The answer is an emphatic ‘No!’ Apart from other publications by such as Harold Aspden, Bernard Lavenda eventually succeeded in publishing an article in 2005 entitled Three Tests of General relativity as Short-wavelength Diffraction Phenomena (Journal of Applied Science, vol 5, no. 2, pp. 299-308). It might be noted that this article didn’t claim general relativity incorrect, merely that there was an alternative method for obtaining various physical results.
Careful , your conspiratorial paranoia is oozing, oz..a totally non functioning and corrupt system . I know this didn't come about by chance, it was planed by the Rockefeller/Rothschild s a hundred years ago
That's not true , splitting a big atom releases energy, splitting a small atom requires input of energy . There is conservation of energy here , it's conserved in the form of mass . E=MC2 cannot be disputed, it's been confirmed by countless experiments, some of which I have done (my subject at university was nuclear engineering) if something fishy was going on I would have noticed it. You can split an atom and get energy out , but if you want to reverse that process and reconstruct that atom you have to feed back that same energy to do it, and that energy is stored in the form of mass which can be proved by measuring the atomic weights of the atoms.CharlesChandler wrote:oz93666 wrote: Splitting an atom releases EM radiation. Fusing atoms releases EM radiation.
So combining small atoms requires that we subtract the energy from the system? That means to subtract all the energy from the system we must make the atoms incredibly cold.oz93666 wrote: splitting a small atom requires input of energy.
And I'm supposed to take your word for that? And if I don't, I'm too headstrong? I don't even know your real name. Are you actually so full of yourself that you think that you can make statements anonymously, and then insist on the benefit of the doubt???oz93666 wrote:...if something fishy was going on I would have noticed it.
no ....to get small atoms to combine , first you have to get them 'hot' then when they combine you will get a lot of energy released . It's very analogous to a piece if charcoal, when it burns it will give out a lot of heat energy , but first you have to put some in by lighting it with a match. So that carbon is just waiting to combine with oxygen , it just needs a push. In the same way all small atoms want to combine up to Iron , and all big atoms want to break down to Iron, Iron has the lowest binding energy of any atom it's the lowest energy state , so all matter has a tendency to want to become Iron.JeffreyW wrote:
So combining small atoms requires that we subtract the energy from the system?
These points are not easily proved one way or the other, we could debate them for a week and not be in agreement, so I leave them for now and go for the easy one....CharlesChandler wrote:So, I have questioned Eddington's "gravitational lensing" conclusions, because I'm not satisfied that the mirage effect was properly ruled out, to anywhere near the degree of accuracy that Eddington claimed. I never get a response past that point. I have questioned the Pound-Rebka experiment, on the grounds that frequency splitting due to an external field was not ruled out. I never get a response past that point on that issue either.
CharlesChandler wrote: I have questioned the equivalence of mass and energy.
That might just be the limits of your imagination, or the power of your assumptions. For example, the "proof" of GR, based on high energy collisions, actually isn't proof at all, because it merely assumes the conclusion. "If" a particle cannot exceed the speed of light (which is one of the axioms of GR), and if you continue to supply the energy to accelerate it, you go up against a mathematical barrier that your GR formulas can't cross. The only other variable in the equation is mass, so the energy must be getting converted to mass. You get the energy back out in the bubble chamber collision, and you conclude that GR is proved. But you haven't proved GR at all. You have merely confirmed the conservation of energy. Newton would have gotten the same results using F=m*a. If you assume that the particle never exceeded the speed of light, you have to accept that the mass is variable, or the conservation of energy is violated. But how did you proof that particles cannot exceed the speed of light?oz93666 wrote:I can't imagine where the error could be.
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