So let's take a step back and ask you to define the key terms you use, if only because it seems, once again, that you are using some terms in ways that differ (subtly or significantly or both) from their standard, physics textbook ones (and I doubt any meaningful questions can be asked of your idea, much less challenges mounted, until we have mutual understanding of the key terms in your idea):
a) 'space'
b) 'gravitational space'
c) 'empty space'
d) 'net gravitation'
e) 'velocity' (even though you claimed to have defined this earlier -
here).
That looks like an answer to question 2); could you please answer 1)?
Wrt 2) with respect to the specifics of the experiment (in which several permutations of emitter and detector - both device and location - were tested):
2a) which '
incoming light' shows '
a blue shift'?
2b) did any observer 'see' '
incoming light' that showed 'a red shift'? If so, which?
2c) is '
the velocity increase of the beam' something which was (directly) observed (in this experiment), or inferred (by you, or others) from the results?
2d) if an experiment had been done, to measure the (local) speed of light at the detectors (in each location), and in all directions, what would the results have been (according to your ATM idea)? Assume 'local' means within a few cm or mm, and that 'speed of light' refers to 500nm (say) in a good laboratory vacuum.
Here's the quote from your OP (again): "
My definition is that space, the field, or the ether, is gravitation moving in all directions at speed C. It carries radiation which is the reason that electromagnetic phenomena travel at speed C in space."
Note that your definition does
not refer to 'empty space'; it explicitly refers to '
gravitation moving in all directions at speed C'.
Note that '
in gravity the speed of light varies by direction' is unambiguous (
all gravity, including that '
moving in all directions').
Note that your definition contains no hint that '
[radiation's] speed is otherwise modified by net gravitation' (whatever this is), nor that '
[n]et gravitation is directional'.
Perhaps this is (yet another) example of loose definitions? If so, would you please re-state your definitions, with particular attention to avoiding ambiguity?In another of your ATM threads you asked a whole lot of questions.
Celestial Mechanic pointed out that '
[m]any of these questions can be answered in almost any elementary book on special relativity and quantum mechanics. There's a whole lot that has been discovered and you need to learn some of it. I strongly urge you to get thee to a library!', but he
was kind enough to answer them anyway.
Your response here - that I am quoting - also shows an apparent lack of rather a lot of rather elementary physics and astronomy.
BAUT has a Q&A section expressly designed to help members get answers to questions such as the ones above. Unlike CM, I have no intention of doing your homework for you ... I urge you to find answers to these questions yourself, by getting yourself to a library, or by asking appropriate questions in the Q&A section.
However, here's one answer:
Q: Is all space plasma?
A: the only parts (volumes > a few billion cubic km) of the universe which are not plasma are rocky planets (like the Earth and Venus), parts of gaseous planets (like Neptune), the outer atmospheres of very cool stars and brown dwarfs (spectroscopic class L, T, etc), and (perhaps) the hearts of very dense molecular clouds ... oh and super-massive black holes.
But let me close with two explicit questions:
1) to what extent does your ATM idea require the propagation of electromagnetic radiation through a plasma where that radiation has a frequency below the plasma frequency of the medium?
In answering this question, you may assume that there are no regions of the universe, of dimensions 1 Mpc or larger, that have an average (free) electron density lower than 10 per cubic metre.
2) to what extent does your ATM idea require the space between stars, between galaxies, and between (galaxy) clusters (any, any combination, or all) to have an average (free) electron density of zero?
It didn't.
Can you please clarify?