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Originally posted by beebs
Haramein's reasoning is clearly described by himself in his long talks.
His particular angle on the problem stems from his philosophical presuppositions.
Now, I will concede that Rauscher's math is probably wrong in the specific sense of the mass of his proton.
However, it is hardly surprising that he got such a high mass for such a small particle - given that he has estimated the amount of ZPE within the radius which perhaps fulfills the SC for the BH - and furthermore that that discrete system is rotating at the speed of light (in his model).
I don't care anymore whether Rauscher's math is correct at predicting the observable mass of the proton. Do you know why I don't care?
Originally posted by beebs
I don't care anymore whether Rauscher's math is correct at predicting the observable mass of the proton
Originally posted by Mary Rose
What experiments prove that the mass of the proton is 1.67 trillionths of a trillionth of a gram?
Originally posted by buddhasystem
Mary,
you complimented yourself on being a "good researcher" more times than I care to count. Now, to ask a question like that instead of making a modicum of effort with Google, Wikipedia or your local library, speaks volumes.
Originally posted by buddhasystem
Charge to mass ratio were measured a long time ago by measuring deflection in the magnetic field, see
en.wikipedia.org...
Originally posted by Mary Rose
Originally posted by buddhasystem
Charge to mass ratio were measured a long time ago by measuring deflection in the magnetic field, see
en.wikipedia.org...
Is this all of it? No other proof?
We determine the cyclotron frequency ratio of H2+ and D+, applying the two-pulse Ramsey-excitation technique in the Penning-trap mass spectrometer SMILETRAP. The final result, based on probing more than 100 000 ions, is a frequency ratio of 0.999 231 659 33(17). Using a value of the D+ mass recently measured by the Seattle group, we obtain so far the most precise experimental H2+ mass value of 2.015 101 497 16(34) u. From this value a proton mass value of 1.007 276 466 95(18) u (0.18 ppb relative uncertainty) could be derived, in good agreement with the value of 1.007 276 466 89(14) u published by Van Dyck et al. [R. S. Van Dyck, Jr., D. L. Farnham, S. L. Zafonte, and P. B. Schwinberg, in Trapped Charged Particles and Fundamental Physics, edited by D. E. Dubin and D. Schneider, AIP Conf. Proc. No. 457 (AIP, Woodbury, NY, 1999)].
Originally posted by Mary Rose
Originally posted by buddhasystem
Charge to mass ratio were measured a long time ago by measuring deflection in the magnetic field, see
en.wikipedia.org...
Is this all of it?
No other proof?
Originally posted by FatherLukeDuke
And what do you mean "is this all of it"?
Originally posted by buddhasystem
Do you find any fault with this experiment? Please explain.
Originally posted by Mary Rose
Originally posted by buddhasystem
Do you find any fault with this experiment? Please explain.
I'm also interested in how the particle vs. wave debate fits in to the debate on Haramein's theory.
Originally posted by chocise
Although you'll find Haramein has fallen into the same trap most post-Planck scientists have. That Planck was responsible, in part, for diverting attention from the truth by forcing theory to fit the observed is at the very least, an outrage, that he was part of an ongoing misconception is perhaps unforgivable. Schrodinger realized this 90 years ago when he said [of quantum theory] he wanted 'nothing to do with it'.
Originally posted by chocise
WSM, or the Wave Structure of Matter, is an excellent [and relatively new] alternative theory to the current jumbled thinking on matter.
www.abovetopsecret.com...
Originally posted by Mary Rose
Originally posted by buddhasystem
Do you find any fault with this experiment? Please explain.
No. I'm trying to get more specific about what has already been observed.
Thanks for the links.
Originally posted by Mary Rose
I'm also interested in how the particle vs. wave debate fits in to the debate on Haramein's theory.
Originally posted by chocise
you'll find Haramein has fallen into the same trap most post-Planck scientists have. That Planck was responsible, in part, for diverting attention from the truth by forcing theory to fit the observed is at the very least, an outrage, that he was part of an ongoing misconception is perhaps unforgivable.
Bobathon, I agree, and Mary, I hope you find the answers you seek.
Originally posted by Bobathon
Originally posted by Mary Rose
I'm also interested in how the particle vs. wave debate fits in to the debate on Haramein's theory.
I think it's great that Mary is asking about how the mass of the proton is known to be what it is. That is a great question. I wish you luck with your investigations, Mary.
I'd like to add something to this comment. The model of quantum mechanics is one of the best models ever because it makes so many accurate predictions. However it's a model:
Regarding the particle/wave debate, please note that Haramein has declared the whole of quantum physics as "bunk", despite the fact that virtually the whole of the technological developments of the last 80 years have relied entirely on quantum physics.
* Models of Science are useful maps which approximate Nature.
* The Laws of Physics are mathematical Models that reflect the underlying order found in Nature.
* Models in Science are not equivalent to, identical with, or a one-to-one match with the aspects of Nature they describe.
* There is always some limited range over which a Model is a useful predictor of Nature.
* The fundamental criteria for the acceptance or rejection of a Model is determined by how close the Model predicts the outcome of measurements and observations.
* Models of Science are not unique. There may be two or more Models which describe the same observations equally well.
* Preference between competing Models is judged by:
a. Size of the error. The smaller the size of the error between actual measurements and predictions, the more accurate the Model. A good Model will be able to predict the uncertainty within its predictions.
b. Range of Application. The larger the range over which a Model faithfully reflects Nature, the more universal the Model. If the range is big enough we might even call the Model a Law of Physics.
c. Simplicity. A subjective and practical property that makes a Model easier to both understand and manipulate. In Keats words, "Truth is beauty, and beauty is truth."
Example 1: Mechanics, Relativity, and Quantum Mechanics
Newton's Laws of Motion faithfully reflect the motion of a body as long as the speed of the body is small compared to the speed of light. When the speed of the body approaches the speed of light, Einstein's Theory of Relativity predicts results closer to the actual values measured than Newton's Laws of Motion predict. The Theory of Relativity is itself only a better approximation; it has a bigger but still limited range over which it can be applied.
Both Relativity Theory and Newton's Laws give inaccurate predictions when trying to explain the behavior of matter on the atomic scale. In this range, a model call Quantum Mechanics has proven to make more accurate predictions. None of the well-established Models represent the Absolute Truth about Nature, but they are very close likenesses of the Nature under certain conditions.