Aristarchus wrote:Due to data from Voyager 1, it was discovered that the a new layer of the solar system observed encountering the heliosphere did not comport to previous assumptions/models. Your subjective term "scant" has no place in the debate, because a proper scientific method would be to try to understand why the previous assumptions/models were incorrect regarding the heliosphere. This is not done by ignoring the data from Voyager 1, but rather, to investigate it further. Your "many, many more data from nearer the Sun" is a contradiction. If these many more data nearer the Sun are enough, then why did they not predict a more accurate model for observations found in the heliosphere regarding spacecraft?
These, and other statements in your post, are poorly scoped. If the topic is the Sun, large volumes of data, from lots of satellites (e.g., OSO, Skylab, GOES, P78-1, SMM, Hinotori, Ulysses, CGRO, Yohkoh, CORONAS, SOHO, TRACE, RHESSI, SORCE, Hinode, STEREO, IBEX, and SDO), most of them operating around 1 AU, are very relevant. Four satellites (Pioneers 10 & 11, and Voyagers 1 & 2) operating near 100 AU give us a little bit of information about the heliopause, which happens to be the only
in situ data that we have, so these data should be the basis for all statements on the heliopause. But the Pioneer/Voyager data don't tell us more about the Sun than the data we got from all of the other satellites combined, do they?
This isn't hyperbole. You're calling attention to small quantities of data
from a different domain. So the relevance needs to be questioned.
IMO, the anomalies in the trajectories of these satellites are definitely evidence of the electric force, at least at those locations. Generalizing from there to galactic fields is quite a leap. There is evidence that particles in the interstellar winds get their electrons stripped off when they start colliding with particles in the heliosphere, since the atomic nuclei have more inertia, and thus will get embedded deeper in the heliosphere than the electrons.
May, H. D., 2008: A Pervasive Electric Field in the Heliosphere. IEEE Transactions on Plasma Science, 36 (5): 2876-2879
From this, we would expect the inside of the heliopause to be positively charged, and the outside to be negatively charged. And we would expect a negatively charged satellite on an outward trajectory to experience a "retarding force", because its negative charge is repelled by the negatively charged outer heliopause, and attracted to the positively charged inner heliopause. So this might be telling us everything about the conditions in the heliopause, and nothing about galactic fields.
Aristarchus wrote:Needless to say, it is NASA and the consensus science that remain the primary source for gathering data from hugely funded research projects, and they also have access to how the data is interpreted and conveyed through the mainstream media. Now, you can state that you're not part of the consensus science; however, I would surmise that your data nearer the Sun, "especially around the Earth" would probably be studies funded and interpreted from the consensus science.
And the Pioneer/Voyager data are not? You can't dismiss inner solar system satellite data, because it is being munged by NASA, but accept Pioneer/Voyager data as beyond doubt, when it's being munged by NASA also.
seasmith wrote:CharlesChandler wrote:And there is no getting around the fact that if the Sun is externally powered, the power cable would be in plain sight. And we can, in fact, observe the current. But the current stops short of the heliopause. So no, the Sun isn't powered from outside of the heliosphere. It's all about the data, right?
[The "data" is observing 'some current', not the full circuit.]
1) OK, so where is the rest of the current?
2) I can show that the current that we're detecting is up to the task. I can show that CMEs are +ions. And knowing the average mass for each ejection, and the rate at which they occur, I can calculate the average charge that gets ejected (i.e., 10
15 amps). Note that this represents a loss of +ions inside the Sun, which creates the potential for an outward drift of electrons. The charge involved in that current will, of course, be 10
15 amps. Given the electric field of 1.7 GV, and given that watts = amps * volts, the total power output comes to 10
25, which is within an order of magnitude of the known power output of the Sun.
3) To make your current work, you not only have to identify the potential, and the reason why we haven't detected it yet -- you also have to deny that my current exists. Since my model is consistent with all of the available data, you basically have to dismiss all of the data. Is it all about the data, or not?
James Hogan wrote:...it should be clear by now that the suggestion here is that what we're seeing when we look at the Sun's photosphere is the anode plasma of a cosmic electrical discharge, with tufting showing itself as the bright granulated structure and providing the protons that supply the solar wind. Eventually the accumulation of excess electrons reduces the tuft potential to a level where de-ionization sets in, and the tuft simply dies away to be replaced by a newly budding one, in keeping with the pattern observed.
I wasn't able to find any supporting information on anode tufting. Juergens referred to them, but didn't cite any sources, and then Thornhill picked up on it. Now Scott quotes Thornhill, and Hogan quotes Scott, but aside from the original statement by Juergens, I haven't found any info on anode tufting. (Note that I'm not talking about anode glows -- I'm talking about the supposed Benard cells that form, like solar granules.) So this doesn't constitute corroboration -- it's just a bald assertion.
I give a detailed description of why I think that Benard cells are expected if the Sun is a cathode (i.e., electron drag). I supplied detailed
prints to Monty Childs in October of 2012 on how this could be tested by SAFIRE. When they release the prints for how they actually built the apparatus, we'll know whether or not this was actually tested, and if so, what results they got.
James Hogan wrote:The radiated energy comes primarily from the tufts. It is delivered by electrons accelerated from interstellar space, which calculation indicate would achieve relativistic velocities in the voltage drop near the solar anode.
At relativistic velocities, the current should develop a powerful z-pinch effect, consolidating the current into a finite number of discrete channels through the heliosphere, like in a plasma lamp. Such channels should be quite impossible to miss, and their footpoints on the surface of the Sun should be the brightest features on the Sun. And yet they're just not there.