CANGAS wrote:mpc755 wrote:CCC wrote:...the properties of this aether are getting more and more complex all the time. Now all objects moving at constant velocity are all at rest with respect to it.
The state of the matter, as far as I have been discussing, has always been at rest with respect to aether when the matter is moving with constant momentum. I can see the confusion I have caused. I am trying to avoid applying the idea of motion to the aether. I am trying to stick with discussing the aether in terms of its state with respect to the matter. I want to convey the idea of matter having constant momentum at the same time this affects the state of the aether, but I do not want to convey the idea of the matter having constant momentum through the aether. I am trying to convey the state of the aether as its state of displacement along with the aether's connections with the matter being responsible for the associated aether pressure. Aether pressure exists in two forms. One is the aether pressure associated with momentum. The other is the aether pressure associated with displacement.
In terms of 'at rest' and momentum, an object with momentum has a certain amount of aether pressure associated with that momentum but the pressure associated with constant momentum is the same on each and every nuclei which the matter consists of. Think of each nuclei having an associated aether pressure in which it exists being applied equally to every part of the nuclei determined by its momentum. If the nuclei has greater momentum, then the nuclei has a greater associated aether pressure being applied equally to every part of it. That is why atomic clocks 'tick' slower the greater their momentum.
The issue I think is with my use of the term 'at rest'. 'At rest' usually applies to 'not moving through'. I am not using 'at rest' in this way. Einstein said the idea of motion may not be applied to the aether. Einstein's definition of motion is the aether does not consist of particles which can be separately tracked through time. I am trying to adhere to Einstein's concept of motion to stay away from saying objects move through the aether. I am using 'at rest' to address the objects state with respect to the aether.
This is probably off topic but it might help explain this concept I am trying to convey. The state of the aether is determined by its connections with the matter and the state of the aether in neighboring places. This means the state of the aether with respect to the Earth's surface is the aether is at rest, or almost at rest, with respect to the Earth's surface. With this definition we can say the embankment is more 'at rest' with respect to the aether than the moving train is. The train is less 'at rest' with respect to the aether than the embankment is. There is a greater aether pressure associated with each nuclei which is the train than each nuclei which is the embankment. But what I am having difficulty finding the right words for is since the train is moving with constant momentum each nuclei is 'at rest' with respect to the aether in terms of the associated aether pressure on the nuclei is constant and being applied equally to every part of the nuclei. But at the same time the aether pressure on each nuclei on the train is greater than the aether pressure on each nuclei on the embankment.A question occurs. You say that the overall aether pressure increases with momentum, but that this does not create a gravitational potential. Why not?
Because the pressure is centered on each and every nuclei in the matter. Each and every nuclei is displacing the aether based on its momentum (Each and every nuclei is also displacing the aether based on its mass, but we are discussing momentum for now). The aether is displacing back on each and every nuclei which is the matter. The center of the mass of each nuclei is the center of the aether pressure associated with momentum. Each and every nuclei is at rest with respect to the aether even though the aether pressure on each nuclei is greater the greater the nuclei's momentum.
When accelerating the aether pressure is not equally distributed towards the center of the mass of each and every nuclei. When accelerating the aether pressure exerted on the nuclei in the front of the direction of travel is greater than the aether pressure exerted on the back of the nuclei. This is equivalent to the aether pressure associated with gravity. The pressure associated with the aether displaced by massive objects is greater on the 'top' of the nuclei pushing the nuclei towards the center of mass of the object.A second question; is this pressure constant on the train in all directions?
If the train is moving with constant momentum then the aether pressure associated with the momentum is constant on each and every nuclei which is the matter which is the train.
You have hit a high water mark of confusion now. In the grammar I learned sometime ago, there is a big difference between "moving" and "at rest". You seem to be unable to effectively explain when your theory means one, and, when it means the other.
I think you have finally thrown me off the track of having any hope of understanding what you are trying to say.
I was using the term 'at rest' incorrectly. I was using the term 'at rest' to refer to equally applied aether pressure. When an object moves with constant momentum the aether pressure is the same on every part of every nuclei the object consists of. The faster an object moves with constant momentum the greater the pressure on each and every nuclei the object consists of, but the pressure is still equally applied to each and every part of each nuclei.
When accelerating or under the effects of gravity the aether pressure is not equally applied to every part of the nuclei the object consists of.
Einstein stated, "the state of the [ether] is at every place determined by connections with the matter and the state of the ether in neighbouring places". The more the aether is connected to the matter the more at rest the aether is with respect to the matter. The aether connected to the matter which is the surface of the Earth is more at rest with respect to the Earth than the aether in the upper atmosphere is at rest with respect to the surface of the Earth.


