The Man
Unbanned zombie poster
Hmmm. Well, yes, but... We do sort of end up at that "which came first" question, the current or the magnetic field.Yes however, the "pinch" is produced by the magnetic field around the current.
No we don’t because the question wasn’t "which came first", it was specifically “What force or forces “evacuates the area around the filament” and confines the current to that reduced cross sectional area?”.
In terms of the how part, there are two kinds of energy "stored/contained" inside and around the filament, the particle kinetic energy moving through and in the filament, and the magnetic field energy around the filament. Both types of energy are "contained" (probably a better word) within that moving "circuit". The one part of this issue that through me for a loop for a bit was the concept of "moving circuits". The filament acts as a wire, but it's a moving flowing wire that has it's own kinetic energy that has to be accounted for, not simply the magnetic field pinching the filament.
So again kinetic energy and magnetic field energy, where is the electrical energy or electrical field energy? How and where is that stored? How and where is it released?
Kinetic energy is generally not considered to be “stored”, potential energy is. However, kinetic energy can be redirected by the application of a force. How does the redirection of kinetic energy fit with your discharge as a release of stored EM energy? What force or forces redirects this “particle kinetic energy”.
I will try to round up Wheatland's paper again for you so we can discuss where the circuits begin, but suffice to say they must begin far under the surface of the photosphere, and must be deeply embedded in the photosphere. They are highly energized as they pierce the surface. If we're going to stick to standard theory, I suppose it's possible they could extend to the core for all I know. I personally don't thing they extend more than 4800KM into the photosphere however.![]()
Where they begin is irrelevant to how and were they store the energy as well as how and to where that stored energy is released. For all you know there is no energy that is stored and just kinetic energy is redirected, so it doesn’t seem that you do know.
Keep in mind that at times I'm simply explaining Alfven's theory in a "matter of fact" manner.
Keep in mind that you claimed to be able to explain. So you should be able to do so in just your own words even if what you simply quote form Alfven doesn't.
Not at all. I happily round you up some other papers to look through later today.![]()
Be prepared to demonstrate that you understand those papers and in particular their relevance by explaining them in your own words.
Well, again, there is electron particle kinetic energy flowing through the filament, there is ion kinetic energy within the filament, there is heat stored in the filament, and there is a magnetic field pinching the whole thing together that stores energy. The term "circuit" also has exploratory value IMO because it allows us to describe these events in a standard electrical engineering fashion, and that is in fact exactly what Alfven did.
OK, so “electron particle kinetic energy” with “ion kinetic energy” which would give you some average kinetic energy represented by temperature. Along with the “magnetic field pinching the whole thing together that stores energy”. Again where is the electrical energy or electrical field energy? How and where is that stored? How and where is it released?
“standard electrical engineering fashion” involves components with values and includes how energy is both used and stored by such components, not the simple and ubiquitous assertion of “The term "circuit"”. Again the simple term "circuit" that you have equated to a solar flare or coronal loop has no probative or exploratory value. How and where your EM energy is stored in that "circuit", how it is released and where it is released to from that "circuit" does. I am still waiting for you to demonstrate that you can “describe these events in a standard electrical engineering fashion”.
There's heat as well, but we could just treat that as particle kinetic energy. Keep in mind that as long as the current flows, the magnetic field energy remains 'stored'. The moment the current is disrupted, but whole energy contained in the loop, both particle kinetic energy and magnetic field energy will "explode".
Actually we have to treat temperature as a measure of the average kinetic energy, because that’s what it is by definition.
Well you’ve still only got kinetic energy that can be redirected by some force and energy stored in the magnetic field. Again where is the electrical energy or electrical field energy? How and where is that stored? How and where is it released?
Also if the magnetic field is acting to pinch the filament then some of that energy is not stored but transferred to kinetic energy in the particles confining them to a smaller cross-sectional area.
Ultimately, yes.
So how does that redirect the kinetic energy of the particles?
It is transferred via induction (explosively) to the surrounding plasma.
So the discharge, the solar flare and the redirection of the kinetic energy of the particles is driven by the collapse of the magnetic field once the current is interrupted by the pinching due to the magnetic field. Again where exactly are any electrical fields storing and releasing energy in any of this. It seems more like you’re trying to develop a magnetic model for solar flares and the sun rather then an electric one.
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