Originally posted by yogi
O yes - now I recall more of what I originally read - you have argued that your proposed mechanism produces an acceleration of g on Earth and therefore, if there where any other contender for a theory - it would means g would be greater by what the contender added - Nigel - there is a serious flaw to this type of logic - you have made a hole lot of assumptions such as the fact that the out going galaxies leave behind a spatial void that must be filled by incoming space - first of all the amount of particle matter is so small compared to the amount of space in the void - the spatial inflow due to this is insignificant - moreover, all conventional interpretations of expanding space is that the stars are not moving outward relative to space, but rather the whole of space is expanding and the stars are just getting carried along - in this sense space appears to simply be stretching as would be the case if you put dots on an inflating balloon - the dots don't move with respect to space - they are just carried along - so there is no inflow - and as far as local effects go - we see local galaxies converging not being pulled apart - you have to get out to near the Virgo cluster before there is significant expansion -- anyway - all these assumptions corrupt what you assert top be a proof - if the postulates fail - the theory fails - I have just mentioned a few of the problems - but your premises are in conflict with all of the generally accepted models of expansion - beginning with Friedmann - so they don't lead to a g factor on Earth and therefore you cannot bootstrap yourself up to a statement that since my theory makes gravity - there is no room for a rival theory. Sorry to be so harsh - but that's the way it is
Yogi - please punctuate! Better still, if you object to any of the 16 steps in the mathematical proof, point them out. I presume that you do not object to the formula for the area of a circle, so presumably the things which you disagree with are connected to the particle-wave duality in the fabric of space.
The mention the inflating balloon analogy above. This was used to demonstrate the early idea of an infinite, expanding universe. In the big bang, absolute motion occurs, as witnessed by the +/- 3 millikKelvin cosine variation in the cosmic background radiation (the observed temperature is highest in the direction of the Earth's absolute motion, and coolest 180 degrees from that direction). An article on the Scientific American in 1978 by the discoverer of this was entitled "The New Aether Drift".
When you multiply the 400 km/s or so absolute motion of the Milky Way by the age of the universe, you find that it has traveled about 0.3 % of the radius of the universe since the big bang, assuming that the motion has been constant. Of course, some people reject Occam's Razor, and always prefer a more complex, less intelligible interpretation, such as the suggestion that there is a "great attractor" which causes the effect.
Just to acquaint you to the differing interpretations of the fabric of space, the Michelson-Morley experiment, and the reason for "wave-particle duality" in quantum mechanics (the flow of space around INDIVIDUAL SUBATOMIC PARTICLES AS THEY MOVE, giving the cause of gravity as in my model), here are a couple of quotations from Eddington, the man who VERIFIED Einstein's general relativity in 1919:
‘The Michelson-Morley experiment has thus failed to detect our motion through the aether, because the effect looked for – the delay of one of the light waves – is exactly compensated by an automatic contraction of the matter forming the apparatus.’ – Professor A.S. Eddington, MA, MSc, FRS (Plumian Professor of Astronomy and Experimental Philosophy, Cambridge), Space Time and Gravitation: An Outline of the General Relativity Theory, Cambridge University Press, Cambridge, 1921, p. 20.
‘The idealised physical reference object, which is implied in current quantum theory, is a fluid permeating all space like an aether.’ – Sir Arthur Eddington, MA, DSc, LLD, FRS, Relativity Theory of Protons and Electrons, Cambridge University Press, Cambridge, 1936, p. 180.
