posted on Sep, 17 2022 @ 01:22 PM
An update. Besides posting here I sent my paper out to perhaps a dozen or so people. I got no response at all from most. I did get four responses. A
journal editor complimented it as being monumental. A highly respected engineer remarked that if true it is a far simpler underpinning for physics and
that it is rather compelling, but given the many great minds who have formed the present standard models perhaps I was simply being delusional. A
highly respected physicist mentioned several times it would never be published and offered critiques about Hubble telescope results and the missing
analysis on neutron stars and black holes. And my son has been inching along with his review, finding a handful of typos so far.
All of those who commented help to some degree, as it is the silence that kills. My son's work is very valuable as he is slowly working through
everything and finding typos. In my last draft I found over 1000, and judging by past similar efforts I estimated there are likely still 10's of typos
remaining. The way many of the analyses were done was to copy from one section and then edit that copy for the new section, changing a subscripted Q
to a subscripted T, or changing "expanded" to "compressed", or similar types of changes. That is because the analysis is very similar from one place
to another, but each place has some differences in the specifics. Also, during the many drafts I sometimes had to flip a sign on the whole thing, and
that of course might lead to places where one misses the correction here and there. It was and is all very tedious, but I believe it was important to
work through each such contributing analysis. I believe the important pieces are all correct, but some subscripts or descriptive words might have
still escaped correction. No fundamental change in an equation was found on my last review, so I believe the numbered equations are all correct, but I
really do appreciate any improvements found by anyone. My son has found about one correction every eight pages or so, on par with expectations.
I didn't at first understand the critique about the Hubble results, but came to realize that the misunderstanding was over my new Equation for gravity
in the case where one mass is much less than another. The important point there is that the equation should not be applied when two attracting masses
are of approximately the same mass. If one carefully goes through the derivation it should be clear that it is the aetherial displacement that leads
to terms proportional to 1/r and 1/r-cubed, and that there will be no such aetherial displacement equidistant between two equal masses. Hence, for
equal masses you don't get the extra terms. What the work really shows is that there are two types of field-mass resulting from the quantum, tension,
delta and gamma fields. One field-mass is repulsive and the other is attractive, and the theory tells us what forces to expect when a small mass is in
a field predominantly determined by a much larger mass. The repulsive field-mass leads to perihelion advances, and the attractive field-mass leads to
what is presently called "dark matter". I will try to make this point more clearly in the next draft.
As for neutron stars, in version one I did a quick calculation of the "effective mass" of a neutron star and found it was negative. (The effective
mass includes the original mass of the object plus effects of its field-masses.) In the derivations it is always assumed that any deviation in size of
an aetherial quantum would be small as compared to the size of the quantum itself, and all along I anticipated that a large enough mass might cause a
violation of that condition. So when I saw the negative effective mass of a neutron star I just thought that the deviation of the quantum might now be
large, and so I listed it as outside the scope of the paper. But the highly respected physicist said I could not avoid this topic, and it got me to
thinking more.
I now realize there was a second reason that the "effective mass" of a neutron star can be calculated as negative, and that is because if we ignore
the negative field-mass effect on aetherial displacement, then that negative mass can exceed the positive mass. And for version one I always ignored
the negative field-mass effect on aetherial displacement, and it is perfectly good to do so in less extreme environments. But for the case of a
neutron star, you can't ignore the negative field-mass, as it will lead to a mitigation of the aetherial displacement which is important to the
physics there. So I am now at work on that, and hope to get an understanding of neutron stars in the coming weeks or months.
I am also hopeful that my understanding of neutron stars will directly lead to an understanding of what are now called "black holes". My theory does
not have a singularity, and objects more massive than neutron stars should really just be more massive neutron stars with some additional compaction
in their cores. The Fermi pressure (or degeneracy pressure) can continue to increase as each neutron is squeezed to a smaller confined space, and this
can continue to offset growing pressure from additional mass. There is no magic condition wherein this will collapse to a singularity. Now, we must
remain humble enough to admit that it might collapse to something besides a neutron, but it won't be a singularity in my theory. There will be no
black holes.
So those are the updates on how the work is progressing. As for other matters, I have written a "science fiction" thread about what one could do in a
future world wherein we control the aether, but I wish for the science to be fleshed out a bit more fully before I post the science fiction.
I would still like any comments from the physicists here. I hope some can take the time to read my work. I believe it to be of some importance, and
your feedback is always appreciated.