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As the orbit of the plane of the orbits of the major planets is close to the plane of the orbit of the solar system around the center of the galaxy at a speed of over 2*10^5 m/s, and the closest distance between the Earth and Jupiter is 6*10^11 m, the existence of a luminescent ether would have resulted in a 3 s difference in the travel time of a radio signal from Galileo to Earth when measured roughly 2200 days apart. I believe that time data was included in Galileo’s transmissions, and that its onboard clock was well capable of sufficient accuracy to measure such a large time difference.
I cant be postive that this is true.
I have shown that for # velocity an object travels away from an observer the light will increase in equal value of velocity from the source.
This means that in an aether enviroment light is also constant to all observers. The light will remain at C to all observers including when the source is changing velocities relative to the observer.
However, if the observer itself changes velocity, this does not affect the lights velocity in relation to the source, or the aether, and the added velocity of the observer must be taken into consideration as to only affect its own frame.
As I understand this has not been introduced, but I am proposing it is a fact.
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the existence of a luminescent ether would have resulted in a 3 s difference in the travel time of a radio signal from Galileo to Earth when measured roughly 2200 days apart.
That is not the case. However, it is possible I did not assume your unspoken mechanics of it correctly.
What I have done is shown the classical operation of aether would have shown a time delay as you have said, but that is not the case in the form I have developed and am proposing is fact.
For example.
You must exclude the velocity of an observer to affect the velocity of the light that is surrounding it. The light remains at C regardless of the observers velocity in this aether form.
The thing that does change is the rate at which you observe change in incoming light (as in a clock will seem to move faster but this is only the light apearing to move faster) aswell as an increase of frequency. Thus it appears time will speed up if you accelerate towards light, but that is only the visual data coming at you more frequently, which is exactly how we measure time in the first place, what we see, which is incoming light or incoming change.
The wave of light itself does not increase in KE as the observer changes speeds, what does change is the time the same energy is delivered.
It is ver close to being identical to current space-time (explaination) however it is provable to be done with aether.