Solar Wind and Black Holes

Solar Wind: How Do They Radiate from the Sun?

The stellar air-aether [invisible spacetime particles] is continually pushed by 2 phenomena:

1. By their fellow air-aether between them and the star at the center of their gravitational territory
2. By the fire-aether [visible electromagnetic particles] of that star*.

They are not pushed at all by the others [beside them].

For example, those at E are not pushed by those at M, G, F, K, or H, but only by all those that are between the two lines AF and DG together with the fire-aether of the sun.

That is why they tend not only towards M, but also towards:

• L,

• N, and

• generally all the air-aether that are in a straight line from the points on the sun.

To explain this outward motion, let us imagine the sun as a void.

Black Holes

Imagine the air-aether particles at E were all alone and that there was absolutely no light (fire-aether) anywhere, even where the sun is.

1. If that air-aether at E disappeared, then the air-aether beyond circle FEG, say at M, will not fill its place since it tends to move away from it.

2. The air-aether at F will also not fill it. This is because it is moving towards G with the same speed as it goes to R.

The void at E will move with them as long as others do not come from elsewhere to fill it.

3. The air-aether within the circle FEG but beyond the lines AF and DG, such as those at H and K, will also not fill it.

• This is even if their tendency to move away from S disposes them in some way. This is similar to how a rock’s weight disposes it to fall in a straight line and roll down a mountain sideways if it cannot fall straight down.

But such air-aether do not fill that void because of the continuous straight-line motions.

Nature always chooses the shortest way to arrive at the same effect.[57]

• This is why the air-aether must travel in a straight line.
• The continual straight-line motions impedes the air-aether from going into E.

If the air-aether at K advanced towards E and filled it, then the air-aether at the Sun S would take the place of K.

• But this would create a new void at the circumference ABCD of the sun at the same time

But shortest way would be for the air-aether between the lines AF and DG advance straightaway towards E.

• But by the time that air-aether reaches E, E has moved away.
• It cannot curve to chase E in the same way that a falling rock falls straight down and not in a curve.

The air-aether between the lines AF and DG must advance together towards space E in order to fill it when it becomes void.

Only their inclination to move away from point S carries them toward E.

• This inclination causes those between the lines BF and CG to tend to move more directly towards E than those that remain between the lines AF and BF, and DG and CG.
• These latter parts are also disposed as the others to go there.

The effect is that:

• space E is filled
• a space of equal size in the circumference ABCD becomes void at the same time

The air-aethers are completely alike, but not all equal.

• It does not matter which of them fill these places.
• The motions that can cause them to be unequal are irrelevant.

The shortest way to fill E is for the air-aether at D to go to E via lines DG or DE.

If the air-aethers between the lines BF and CF advanced first towards E, then they would cause V to be void.

• D would then have to fill this.
  • This would create a curved line DVE* just to fill E instead of a straight line DG, or DE.
• This is contrary to my rules of motion.