The Birth of Electromagnetism from Spacetime

Spacetime Becomes Electromagnetism

The air-aether particles that broke off from air-aether during collisions gained:

• more speed than the air-aether because they had to travel farther at the same amount of time.
• the ability to change shape so that it could fit anywhere

They became the fire-aether.

These travel much faster than the air-aether because they have to travel at a more confined path at the same amount of time.

The round air-aether particles have spaces between them. These are quickly filled by the fire-aether.

The excess fire-aether go around the air-aether and return towards the centers of those air-aether.

This is because the air-aether already occupies all the other, more distant places.

The Inverse Square Law Comes From Circular Motion

At those centers, the remaining fire-aether must compose perfectly liquid and subtle round bodies [as stars].

This is because they incessantly turn much faster than, and in the same direction as, the air-aether particles surrounding them.

The fire-aether particles have the force:

• to increase the agitation of those particles to which they are closest to
• in moving from the center toward the circumference, to push the parts of fire-aether in all directions, just as they push one another.

This action we perceive as light.

The round bodies of pure fire-aether are the stars.

The air-aether that turn around those stars as stellar gravitational territories [’the heavens’].

Imagine, that:

• the points S, E, e, A, and Z are the centers
• all the air-aether of the gravitational territory FFFFGG turns around S
• all the air-aether of the gravitational territory HGGH turns around the star e, and so on for the others.

Thus, each star has a stellar gravitational territory.

• Since the number of stars is indefinite, so too is the number of stellar gravitational territories.

The firmament is the flat surface, without thickness, separating all the gravitational territories from one another.

Orbital Speeds

The particles of the air-aether towards F or G are more agitated than those toward K or L.

This makes their speed gradually decrease from the edge of each territory to the middle place such as:

• the orbit KK around the S
• the orbit LL around e.

From there, the middle part, it then increases little by little up to the centers of the gravitational territory because of the agitation of the stars at the center.

Thus, the comparative speeds of the air-aether around the different orbits are:

This is why:

• the farthest planets move more slowly than those nearest to the sun
• all the planets together move more slowly than the comets, which are more distant.*

The Sizes of the Air-Aether Particles Depend on their Location

The comparative sizes of the air-aether around the different orbits are:

• Between the edges of FFFFGG and edges of the orbit KK, the air-aether has similar sizes, with those at the edges of FFFFGG being slightly smaller than those at the edges of orbit KK .
• By contrast, from orbit K to the sun, the air-aether nearest to the sun are the smallest and strongest due to their agitation.

The smaller their size, the faster their speed.

• Otherwise, if were large and fast, then they would be flung out to the edges of orbit KK

The sizes of the stars can be so small compared to their own territories or solar systems.

This makes the orbits KK, LL, etc mark the edges of the agitated area of these stars which facilitates the smaller particles of the air-aether.

• These orbits can be considered as the center of those stellar gravitational territories.