Two types of solar flare, but only one prediction method.

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Re: Two types of solar flare, but only one prediction method

Unread postby Reality Check » Thu Mar 29, 2012 4:18 pm

webolife wrote:...SInce we primarily see dark filamentous material above sunspots and bright areas around the periphery of them, is it not reasonable to conclude that cooling/darkening as material moves away from the sun, and heating/brightening of material moving toward the sun is all the explanation necessary?

Hi webolife: The only explanation that is necessary is realizing that how bright (or dark) something appears depends on its background. For example sunspots look dark but they are at temperatures of ~3000K! It is the contrast with the surrounding ~5700 K photosphere that makes them look dark.

Dark filaments are in the same category. As an example consider TRACE H1 Lyman-alpha images. The passband is 1216 A with a width of 84 A. The temperature needed to emit this light is 10 to 30 thousand K. The images contain all of the filtered light from the the chromosphere and the filaments. If the filaments are hotter than the chromosphere then they appear bright. If the filaments are cooler than the chromosphere then they appear dark.

That this is just a matter of contrast is easy to see when a filament is imaged agains the Sun and space:
http://solar.physics.montana.edu/ypop/Program/hfilament.html
Prominences and filaments are really the same thing, but they look bright or dark depending on what is in the picture's background. At the right is another picture that shows a bunch of things. This is another H-alpha picture, and you can see the dark thread-like filaments on the Sun. You can also see some bright-looking prominences sticking out beyond the "edge" of the Sun on the far right. In the box, you can see one object that appears to be both filament and prominence! The part on the face of the Sun is dark (a filament) and the part hanging out past the edge is brighter than the empty space behind it (a prominence). You can see that it's all one piece, the only difference is how the object looks compared to what's behind it in the picture.
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Re: Two types of solar flare, but only one prediction method

Unread postby Michael Mozina » Fri Mar 30, 2012 8:41 am

Reality Check wrote:
Michael Mozina wrote:You'll have to start by defining "physical differences". In own your reference, those "differences" amount to temperature variations.

My reference states that the physical difference between the filament and its background is temperature.
The bright filaments are necessarily composed of plasmas in excess of million degrees.


Oddly enough, we seem to be in agreement on those two points.

The dark filaments are necessarily composed of plasmas in excess of million degrees.


That was either a typo on your part, or you don't understand the concept of a 'dark' filament in an iron ion wavelength. The transition region around the limb is BRIGHT because it has BRIGHT filaments flowing from the sun toward the heliosphere, and bright filaments flowing up and down along the horizon line. The twister like tornado sized filaments ABSORB that background light and appear DARKER than the million degree BACKGROUND FILAMENTS. The dark filaments are NOT millions of degrees, and could NOT be radiating at millions of degrees, or they would appear BRIGHTER than the background BRIGHT filaments that ARE radiating at millions of degrees.

The physical difference that you need to find citations for are things like compostion and density.


The density aspect is something I'll have to look for in terms of support, but the composition doesn't 'necessarily' have to be all that "different' from bright filaments, even from my perspective. I don't think you quite grasp the fact that I believe that all filaments probably have some iron and carbon in them. Some filaments simply carry more current and their ions are more highly ionized, and "hotter" due to the resistance of the plasma.

Michael Mozina wrote:You did way worse than that - you asserted without evidence that dark filaments absorb light.


No, you simply went back into a typical denial oriented approach to physics, starting with SDO images of solar tornadoes. Pick ANY image of ANY tornado on the horizon (limb) in an iron ion wavelength RC. It's going to be DARKER than the limb along the horizon. It's clearly ABSORBING that background light that is otherwise visible around the limb in areas NOT near the DARK FILAMENT! Wow. In terms of ignoring basic laws of physics, I've never seen anyone in your league.

http://www.youtube.com/watch?v=WpL43CXQcts

Checkout the last half of that SDO video and this time LOOK CLOSELY. The background limb is BRIGHT. The tornado "dark filament" is not.

I have looked an many dark filaments and I see exactly the same situation as with sunspots - they are dark against a lighter background. Filaments emnit light (just look at them against space!). Sunspots emit light.


Nobody doubts that the filament emits light RC. It's not however emitting light at the same RATE as BRIGHT FILAMENTS, and in fact it ABSORBS more light than it emits in the iron ion wavelengths. It's not "millions" of degrees as you suggested, it's COOLER than typical bright filaments. Some of the iron ion filters are sensitive down to 160,000K. Light from bright filaments can also be reflected from darker filaments or energy can be temporarily absorbed from the surrounding light and emitted as well. That doesn't mean that the dark filament itself is millions of degrees, in fact it PRECLUDES that possibility.

Michael Mozina wrote:No. If they were emitting light too, those twister like dark filaments (tornadoes) would be BRIGHTER than the rest of the horizon

No. The filaments are hot plasma like the rest of the Sun. They are emitting light too. The horizon is emitting light too. It is the difference in birghtgness that makes the filamenst appear dark.


They are NOT emitting light at the same intensity RC. You're simply ignoring the laws of physics. The silhouette of filament is DARK compared to a BRIGHT LIMB. We can't even observe the limb through the dark filament, and it's clearly DARKER than the LIMB. Whatever it is, it's NOT the same temperature as the bright filaments on the limb RC.

Michael Mozina wrote:Have you even accepted the fact that electrical discharges occur in flares RC?

Have you even accepted the fact that electrical discharges are physically impossible in flares, MM?


No because you're wrong. Dungey demonstrated that you're wrong. Dr. Charles Bruce demonstrated that you're wrong. Birkeland even demonstrated that you're wrong over 100 years ago, in a lab!

http://adsabs.harvard.edu/abs/1958IAUS....6..135D
http://www.catastrophism.com/texts/bruce/era.htm

For the benefit of lurkers:
MM stated the fantasy that "electrical discharges" cause flares in the JREF forum in November 2010.


Actually what I stated is the same thing Dungey stated and Bruce stated and Birkeland stated over 100 years ago. Electrical discharges *OCCUR* in solar flares RC. Cause is arguable. The existence of electrical discharges IN the flare process is NOT!

Since then he has ignored the physics that actual electrical discharges like lightning require the breakdown of a dielectric medium.


No, you keep ignoring Peratt's ACTUAL definition of an electrical discharge IN a plasma, and you keep ignoring Bruce, and ignoring Dungey. The breakdown of the dialectric medium is NOT end of the ELECTRICAL DISCHARGE RC, it's simply the FIRST STEP in SOME TYPES of 'discharges'.

Image

You're even ignoring the role of a lightening rod! They also experience the flow of current of the 'electrical discharge' from the cloud to the Earth, THROUGH THE ROD, and the rod experiences the same PINCH from the CURRENT!

Plasma is not a dielectric medium,


Depends on how "dusty" it is I suppose.

1 .5 Electrίcal Discharges in Cosmic Plasma
An electrical discharge is a sudden release of electric or magnetic stored energy. This generally occurs when the electromagnetic stress exceeds some threshold for breakdown that is usually determined by small scale properties of the energy transmission medium. As such, discharges are local phenomena and are usually accompanied by violent prαesses such as rapid heating, ionization, the creation of pinched and filamentary conduction channels, particle acceleration, and the generation of prodigious amounts of electromagnetic radiation. As an example, multi-terawatt pulsed-power generators on earth rely on strong electrical discharges to produce intense particle beams, Χrays, and microωανes . Megajoules of energy are electrically stored in capacitor banks, whose volume may encompass 250 m^3 . This energy is then transferred to a discharge regίοn, located many meters from the source, viα a transmission line.
The discharge region, or load, encompαsses at most a few cubic centimeters of space, and is the site of high-variability, intense, electromagnetic radiatιοη (Figure 1 .2) .On earth, lightning is another example of the discharge mechanism at work where electr-o-static energy is stored in clouds whose volume may be of the order of 3,000 km3. This energy is released in a few cubic meters of the discharge channel.
The aurora is a discharge caused by the bombardment of atoms in the upper atmosphere by 1–20 keV electrons and 200 keV ions spirιlling down the earth's magnetic field lines at high latitudes . Here, the electric field accelerating the charged particles derιves from plasma moving across the earth's dipole magnetic field lines many earth radii into the magnetosphere.


Notice it's *IN* plasma RC!

There is an obselete usage of the term in the 1960's by at least one author in the context of magnetic reconnection causing flares in a couple of papers. J.W. Dungey defines a large current density caused by magnetic reconnection as an "electrical discharge". MM liked to cite Dungey but did not realize that Dungey debunked MM's assertion.


You're simply in denial of historical and scientific fact. Dungey's use of the term is completely consistent with Peratt's definition. You're the odd one out RC.

Here MM just asserts that electrical discharges happen in flares. This is impossible.


Dungey demonstrated that it's not impossible. It's simply impossible for you to accept scientific and historical fact. Birkeland even demonstrated it EMPIRICALLY in a lab!

But Dungey's "electrical discharges" do happen in the magnetic reconnection that Dungey states (and is the modern scientific theory) causes flares.


This isn't about CAUSE, it's about PHYSICS RC. Electrical current flows through the ENTIRE solar atmosphere, from the surface to the heliosphere. It's inside all filaments, inside the plasma itself. Discharges can and do occur in solar flares according to Dungey, according to Bruce and according to Birkeland. You're the odd one out, not me.
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Re: Two types of solar flare, but only one prediction method

Unread postby Michael Mozina » Fri Mar 30, 2012 10:46 am

FYI, I'm very interested in collecting and sharing any relevant links and papers related to solar flares and Alfven's E orientation to solar flares and coronal loops that anyone would like to add to this thread. Here are a few links explaining Alfven's views on coronal loop behaviors (bright filaments), and links related to flares and CME's in various ways. IMO the paper by Mann and Onel is an absolute GOLD MINE in terms of providing of useful scientific information and circuit modeling techniques in solar physics. It is particularly professional in the way it relates Alfven's circuit theories to solar satellite imagery and it is particularly sophisticated in it''s application of Alfven's circuit ideas to solar satellite imagery. IMO it's worthy of of a Nobel. It''s the last one on the list (I saved the best for last). :) If you know of another paper that is related to solar flares and solar CME's that is related to an E orientation and/or involves solar satellite imagery, that isn't on this list, please add it to the thread.

http://adsabs.harvard.edu/abs/1986stpr.rept..409A
http://articles.adsabs.harvard.edu//ful ... 7.000.html
http://books.google.com/books?id=ZjwoGl ... ma&f=false
http://query.nytimes.com/gst/abstract.h ... 5B838DF1D3
http://articles.adsabs.harvard.edu//ful ... 5.000.html
http://www.nasa.gov/mission_pages/themi ... ights.html
http://www.sandia.gov/news-center/news- ... utput.html
http://articles.adsabs.harvard.edu//ful ... 3.000.html
https://springerlink3.metapress.com/con ... ured/?rel=
http://adsabs.harvard.edu/abs/2007ASTRA...3...29S
http://adsabs.harvard.edu/abs/2007ApJ...670..841S
http://adsabs.harvard.edu/abs/2002PhyS...65..185F
http://adsabs.harvard.edu/abs/2000ApJ...532..616W
http://www.tandfonline.com/doi/abs/10.1 ... 0708521050
http://jpsj.ipap.jp/link?JPSJ/33/496/
http://esoads.eso.org/abs/1977RvGSP..15..271A
http://www.sciencemag.org/content/331/6013/55
http://www.spaceref.com/news/viewpr.html?pid=32448
http://www.catastrophism.com/texts/bruce/era.htm
http://esoads.eso.org/abs/1991SoPh..132..307F
http://en.wikipedia.org/wiki/Birkeland_current
http://www.sciencedirect.com/science/ar ... 3379900825
http://adsabs.harvard.edu/cgi-bin/nph-b ... .144...73C
http://adsabs.harvard.edu/abs/1969SoPh....7..377C
http://arxiv.org/abs/0908.0813

If you only read one of these links, read the last one. Onel and Mann apply Alfven's circuit theories to coronal loops and use multiple circuits to describe flare events. More importantly IMO they tie it back to solar satellite imagery. IMO it's a really EXCELLENT and first rate paper on circuit disruption types of solar flares (x-ray producing) flares.
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Re: Two types of solar flare, but only one prediction method

Unread postby Michael Mozina » Fri Mar 30, 2012 12:20 pm

http://www.thesurfaceofthesun.com/filam ... uption.mpg

FYI, this was the image that I was looking for, although I never did find the original page that it came from on Spaceweather.com (I believe). I'll keep looking. I think it did have some useful information about the image.

This image is from the SDO satellite, specifically the AIA gear and the 304A filter that is most sensitive to Helium II emissions. It's a closeup image of a very large and massive Birkeland current/magnetic rope/rotating plasma filament that has formed in the chromosphere. One of the most interesting things about this high resolution SDO image is the fact that it shows the effect of the change in amount of current that is running through the filament on the filament itself. As the current increases, the end of the filament begins to heat up and light up and we can see an increase in the light intensity in those areas of the filament. We can also see parts of that current which then split off from the large rotating filament and that current heads off toward the heliosphere.

It's a really nice video and I will keep looking for the original page from spaceweather.com where I found it.
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Re: Two types of solar flare, but only one prediction method

Unread postby Sparky » Fri Mar 30, 2012 3:08 pm

"It is dangerous to be right in matters where established men are wrong."
"Doubt is not an agreeable condition, but certainty is an absurd one."
"Those who can make you believe absurdities, can make you commit atrocities." Voltaire
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Re: Two types of solar flare, but only one prediction method

Unread postby Michael Mozina » Mon Apr 02, 2012 10:11 am

Sparky wrote:http://www.thesurfaceofthesun.com/filaments/filamenteruption.mpg
1.6 mb....i can download that !!!..thanks!

now for the homework.... :?


Let's see if we can't make some of that homework a little more fun and add some visual appeal. Those electrical discharge begin *UNDER* the surface of the photosphere. They have a direct impact on the surface of the photosphere as the discharge moves through that surface. We can observe the impact of the flare on the surface of the photosphere in this Hinode limb image of a flare. Notice the mass lighted material moves UP and away from the surface where the discharges comes up through the surface.

http://hinode.nao.ac.jp/QLmovies/sot_mo ... 3-2359.mpg
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Re: Two types of solar flare, but only one prediction method

Unread postby Michael Mozina » Tue Apr 03, 2012 2:08 pm

http://www.thesurfaceofthesun.com/image ... re1600.mp4

FYI, this is an SDO image of the same electrical discharge event seen in the B/W Hinode quickview movie. The important thing to notice is that the mass flow, and the HEATED plasma flow, starts *under* the photosphere, moving heated plasma into space. It's only logical of course that the heated plasma flow starts UNDER the surface photosphere. This also demonstrates that the mainstream has everything backwards in relationship to coronal loops. The coronal loops/magnetic ropes/Bennett Pinches in plasma begin UNDERNEATH of the photosphere (as they know), but the loops already contain superheated plasma that radiates at over a million degrees BEFORE they ever even exit the photosphere.

LMSAL has absolutely everything backwards with relationship to coronal loop heating. They seem to believe that the loops get 'heated up" in some magic location in the solar atmosphere, somewhere between the chromosphere and the lower corona. That's absolute nonsense. The coronal loops exit the surface of the photosphere at OVER A MILLION DEGREES. Flares/electrical discharges often begin UNDERNEATH of the photosphere and blow super heated mass up and through that surface.

LMSAL's notions about solar moss events taking place in some magic location in the sky is pure baloney. The loops are BENNETT PINCHES to begin with! They already contain million degree plasma BEFORE they exit the photosphere. That's also why LMSAL has everything backwards in relationship to the location of the "transition region". It's located UNDER the photosphere as the first light images from SDO clearly demonstrate:

http://www.nasa.gov/images/content/4467 ... g_full.jpg

If you scroll to the bottom (and actually all around the image) of the image, it's easy to see where the transition region is located in relationship to the chromosphere/photosphere boundary. It's 4800KM UNDERNEATH of the photosphere.
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