One other question set for Brantc. You have mentioned supernova's as the source of the material for the shell you propose.
How did the first starts work in your theory, when the universe was mainly composed of hydrogen?
The first stars in the iron sun universe.
Let suppose there was an imbalance in the aether. This caused an electron to be freed and now there is an potential difference across the universe, or something like that..
This is the Big Bang equivalent.
So now you have a current across the universe which eventually forms into a filament due to the increasing current flow. Filaments(flux tubes, elephant trunks, what ever you want to call them) form when the plasma cant locally support that current flow. From there the right hand rule follows.
Now you have a large filament that is is sorting ions by ionization potentials, Marklund Convection as a z-pinch forms in the filament. The pinch is hot enough to go through the nucleosynthesis process by repeated pinching.
Eventually an iron core pops out which sometimes you see as lone stars racing across space.
And how, in your model, are (super)nova's even possible? The iron shell gathers aether and makes light. We see no massive iron ejection from the sun, so the shell is probably stable. And even if it isn't, when it degrades it will just stop working. So your own model at the moment lacks the ability to produce the materials needed in your model.
Or does iron spontaneously appear through 'aether'?
There are two flows of interstellar gas that flow through our heliosphere. This provide the raw material for the sun to operate as well as synthesize metals.
"Because the Sun's motion relative to the surrounding gas, an interstellar breeze of neutral atoms blows through the heliosphere, very much like the wind felt when driving an open car. Only very close to the Sun is the neutral gas ionized by the Sun's UV light and the by the solar wind, which leads to a small cavity in the neutral gas, roughly of several AU in size. Except for hydrogen, which is affected by radiation pressure, the Sun's gravity deflects the neutral gas flow, leading to a concentration of neutral gas density in the direction opposite to inflow direction of the gas.
http://www.americanscientist.org/issues/feature/the-galactic-environment-of-the-sun/1
The resulting flow pattern is shown in Figure 1 for helium. It is this flow pattern that is analyzed to derive the flow speed, its direction, and temperature. Helium, the second most abundant element after hydrogen, distinguishes itself by infiltrating closest to the Sun, to distances even inside the Earth's orbit. Furthermore, because its density, temperature, and speed are not affected by processes at the heliospheric boundary, analysis of the properties of the helium gas inside the heliosphere allows one to establish the state of the pristine interstellar medium.
http://www.spaceref.com/news/viewpr.html?pid=15256
As the interstellar atoms are ionized, they are "picked up" by the solar wind plasma and swept out to the heliosphere's termination shock. Since these pickup ions are products of the interaction between the solar wind and the neutral atoms of the interstellar medium, their measurement offers clues to the composition of the interstellar medium. Helium pickup ions were originally discovered near the earth by a team led by Eberhard Möbius, now at the University of New Hampshire, in the mid-1980s. More recently, as the Ulysses spacecraft left the inner solar system, the onboard SWICS instrument (of George Gloeckler at the University of Maryland and Johannes Geiss at the International Space Sciences Institute in Maryland) was able to detect and identify additional elements in the pickup-ion population, including nitrogen, neon and oxygen, as well as isotopes of helium and neon. Each of these elements is found partially in neutral form in interstellar gas, and the neutrals can enter the heliosphere without diversion by the Lorentz forces. Comparing the abundances of pickup ions with the abundances of ions in the nearby interstellar gas provides important clues about the original ionization level of the cloud feeding interstellar material into the solar system.
http://www.americanscientist.org/issues/feature/the-galactic-environment-of-the-sun/2
The raw material makes it down to the surface of the sun to take part in processes on the surface.
Mystery: Gas from sun heads in wrong direction
"In defiance of expectations, clouds of solar gas have been observed falling back into the sun. The puzzling behavior could shed light on the mysterious magnetism of the sun, which helps protect planet Earth from lethal cosmic rays.
European astronomers have spotted the enigmatic eruptions on numerous occasions using a powerful sun-watching satellite observatory.
Mostly they take place during times of intense solar activity, characterized by the presence of many sunspots. The inflows have started about 1.7 million miles (2.7 million kilometers) from the sun's surface, a distance equivalent to twice the diameter of the star
For unknown reasons, they are able to fight against the powerful solar wind, which pushes gas and ions away from the sun at speeds of about 75 miles per second (120 km/second).
"I was stunned when I saw the first movies showing these inflows," said Bernard Fleck, a scientist with the European Space Agency. Using the Solar and Heliospheric Observatory (SOHO), a joint ESA-NASA sun-watching satellite, he and others first witnessed the strange phenomenon several years ago.
"Before the discovery with SOHO, no one had any idea that gas could travel the wrong way and be pushed back toward the sun."
http://articles.cnn.com/2001-11-21/...ry-solar-scientists-magnetic-field?_s=PM:TECH