Moderator:
Prior to the Intersetlla Boundary Explorer (IBEX) Mission, most scientists believed that the global boundaries of our solar system were controlled mainly by the motion of our solar system through the Galaxy and the solar wind which is an extremely fast flow of electrically charged matter that flows out of the Sun.
The Ibex Maps revealed the galactic magnetic field is also a critical part of the sun’s interaction with the Galaxy.
Thornhill:
The spacecraft was organized to scan the sky and find out where they’re coming from and their energies so it was a big surprise when this ring which was aligned with the interstellar external magnetic field and remember electric currents follow the magnetic field so what the IBEX Mission and the Cassini spacecraft were detecting were returns from bare hydrogen atom nuclei the protons picking up electrons from the current that was surrounding the solar system and then circling around in the magnetic field and some of them returning back into the solar system so the spacecraft could detect them. This was confirmation of the electrical circuit of a star something that Hannes Alfven
decades earlier had shown was necessary to explain the solar wind itself.
Steefen:
Hannes Alfven won the Nobel Prize in Physics (1970) for his work in magneto-hydro-dynamics (MHD).
I asked Chat GPT about Robert’s slight:
Hannes Alfven is a pseudo scientist?
Hannes Alfven is a pseudo scientist?
Answer: Not at all.
Alfvén criticized some aspects of mainstream astrophysics, especially when he felt that theory was getting too far ahead of observation. This made him a bit of a scientific maverick, but still well within the bounds of rigorous science.

Only because Steefen seems to respect chatbots as sources–from Claude:
did nobel prize winner, Hannes Alfven, defend the electric universe theory?
Hannes Alfvén was indeed a Nobel Prize-winning physicist (1970 Nobel Prize in Physics) who made significant contributions to plasma physics and magnetohydrodynamics, but it would be misleading to say he “defended the Electric Universe theory” as it exists today.
Alfvén did emphasize the importance of plasma and electromagnetic forces in space, which Electric Universe proponents often cite to lend credibility to their ideas. However, there are important distinctions:
Alfvén developed legitimate scientific theories about plasma physics that have been incorporated into mainstream astrophysics.
His work on plasma physics and cosmic electrodynamics was mathematically rigorous and subjected to peer review.
While he was critical of certain aspects of mainstream cosmology in his time, his views were far more nuanced and scientifically grounded than modern Electric Universe theory.
Alfvén died in 1995, before the modern Electric Universe movement (as promoted by Thornhill and others) was fully formed.Electric Universe proponents often selectively quote Alfvén’s work to suggest he would support their much broader rejection of standard physics, but this represents a significant overreach. Alfvén advocated for more consideration of electromagnetic phenomena in space physics within the framework of established physics, not for the wholesale rejection of gravity-based cosmology, relativity, and other foundations of modern physics that characterize today’s Electric Universe theory.
The modern Electric Universe theory goes far beyond Alfvén’s actual scientific positions and draws conclusions he never supported.
Moderator:
How does this discovery explain how the Sun interacts with the rest of the universe? The electric universe theory explains this by going back to the birth of a star.
Thornhill:
In the electric Universe, galaxies are an electromagnetic phenomenon not a gravitational phenomenon. This is why astronomers have so much difficulty and have to invent dark matter and so on to try and patch up Newton’s law of gravity. Once you accept electrical activity and electric circuits in space, as suggested strongly by Hannes Alfven, you realize that we have an entirely different mechanism for forming stars. We’re not talking about gravity anymore. We’re talking about electric currents; and electric currents in space take a form known as a Birkeland current which is twin filaments.
In deep space, the amount of matter per cubic meter in other words the density of material is extremely low (it’s counted in sort of atoms per cubic meter). It’s the best vacuum that we know of. So, an electric current flowing in deep space in between galaxies or between Stars can only carry very little current but the sheer size of these current filaments can be light use across. When they’re that size they don’t radiate any visible light but they do give off radio signals which are detected by radio telescopes. When these filaments arrive at a cloud of denser material known as a molecular cloud in a galaxy, the effect is to cause the current (because it can now flow through a smaller aperture if you like) it constricts in. It’s called “the electromagnetic pinch effect.” As it comes in more and more narrowly. If there’s sufficient material, the current density gets to the point where atoms begin to give off light. And, the problem (for many years dogged astronomers) was that they couldn’t see inside these clouds. Visible light can’t get through all of the dust and material. With the advent of infrared space telescopes which could see through the clouds, astronomers were amazed to find these glowing filaments.
They are the signatures of these Galactic current circuits.
They are the signatures of these Galactic current circuits.
Now the pinch effect is one which allows the electric current to draw inwards surrounding material, and it does it more effectively than gravity.
and it does it more effectively than gravity.
and it does it more effectively than gravity.
and because it’s doing along a line and not from a point.
Gravity always operates from a point source of mass. It collects material very well it’s an extremely good kind of vacuum cleaner, if you like, in space. And all the material needed to make stars and planets are drawn together along this filament.
Our sun was formed along one of these filaments. As it turns out, because they’re twin filaments it’s usually a pair of stars at the same time and the two of them are rotating around one another. Some stars, any other object, or any other filament that’s nearby will not form a partner with these two, it’ll be independent and you will see single stars formed along them. Now the Sun may have been one of these single stars because it’s known by astronomers that binary stars are present in remarkable numbers and it’s always been a puzzle why is this so. Why are the stars found in so many pairs instead of single stars? Once the stars have formed they become quite heavy of course over this formation period and the filaments, just like in a novelty plasma ball are moving, waving, snaking about, and at some point the stars are left behind and the filament moves on. So, then you have all of these bodies in a line but they all have their own motions which can be either around each other–or it’s a little random. In the laboratory it was described to me by a top plasma physicist the effect is like they scatter like buckshot; so, after the event, stars are scattered in all directions away from the central axis and planets are formed at the same time so all of the heavy elements that form planets put in place in by this same mechanism and they form partnerships. Because the electrogravitic model of interaction between celestial bodies shows that gravity is long range repulsive and short range attractive, stars being an electrical phenomenon, they continue to shine because the electric current flowing through these clouds is everywhere. There are minor filaments alongside major ones, so the Stars then shine according to their environment. In the case of the Sun, it doesn’t seem to have needed to do anything dramatic to continue to survive after its birth.
Moderator:
How are we connected to the same Force as the sun?
Thornhill:
The Birkeland currents transfer electrical energy to the planets because we’re all part of the same circuit of the Sun.
When stars are created in a nebula, what creates distance between binary stars and single stars?
[Robert’s senseless rule does not allow me to give you the answer.]
There is no same sign magnetism that causes repulsion?
Magnetism (not gravity) in some configurations creation repulsion.
Well, that was only the shorter video with only 50,000 views.
I’ll investigate with the same level of interrogation, the longer video with 3.7 MILLION views.
Other than repulsion in gravity being unacceptable science, what else is cray-cray?
But, there is some repulsion in star creation. So, Thornhill was right to bring up repulsion.
Posted to the video and to the public electric universe facebook page:
Thornhill said in YouTube channel Gaia, video “The Electric Universe – Proof Beyond Theory,” “Gravity is long-range repulsive.” Chat GPT said that is wrong because gravity is always attractive. Then I said, magnets attract and repel. Then ChatGPT said in some configurations star creation show repulsion. Can you comment on “gravity is long-range repulsive.”

Robert wrote:
It [the argument Por. offered for the existence of some “necessary being”] is compelling because we humans want to believe there is an answer, even that there must be an answer, an ultimate explanation. We invent philosophical concepts like “contingency,” and “the necessity of a necessary being or ultimate explanation,” and “the impossibility of an infinite regression” because we have evolved as a species needing explanations, many times wanting an ultimate explanation of all things. And one of the most amazing things is that the world around us, and to some extent the rest of the universe, can in fact be understood and explained, just as I am doing now by use of the idea of biological evolution, which is an idea that has been developing and expanding for the past 170 years.
You make it sound like it is mere wishful thinking or perhaps overactive pattern-seeking. I think it is more compelling than that. I think the logic holds together.
If there is a weakness in the argument, I think it comes down to the weakness of the synthetic a priori.
(Sorry if what follows is unnecessary for the crowd.)
Kant divides propositions into the a priori and the a posteriori; the a priori can be known to be true independently of empirical sense data (e.g., truths of pure logical); the a posteriori cannot (e.g., that it is raining). (By the way, contingent truths–as, for example, historical facts–must be a posteriori, while any a priori truths must be necessary).
He also divides propositions into the analytic and the synthetic. Analytic truths don’t convey new information, they are known to be true simply by analyzing the very terms of the proposition. A trivial example might be, Every bachelor is unmarried. Synthetic truths, by contrast, combine different concepts and so are genuinely informative.
The synthetic a priori were the interesting class of judgements for Kant. That is where he locates, for example, the necessary truths of math and physics. (As a note on physics, just consider that under a good deal of physics are basic assumption about causality: causes must not come after the effect.) But the problem is how can we know they are true? Can we ever be sure they are true? How can we know these concepts really are necessarily related in this way that our minds insist they must be? And his answer is, we can’t. That’s why he divides the noumenal and the phenomenal. The necessary connections between concepts that underlie the synthetic a priori–because it is a priori, because it is held independently of sense data or experience of things–must be supplied by the mind itself. Thus things like mathematics and physics describe the world as we experience it–with the categories that our mind has imposed on it–not as it is in itself. We can never peak at reality as it is in itself, leaving behind our mind’s conviction that certain things must be related in certain ways.
(It is worth noting that Kant was not the first–and certainly not the last–to wrestle with this issue.)
On the one hand, this seems an insane conclusion. We have used our scientific knowledge to great effect in the real world. Science has clear predictive power.
On the other hand, the history of science (and math) is littered with shocking results that overturned beliefs that seemed absolutely certain. (But then again, the very fact that we were able to overturn those beliefs seems to challenge their having been true synthetic a priori propositions in the first place).
Add to this: The very distinction between the analytic and synthetic has been compellingly challenged, most famously by WVO Quine.
Anyway, to put it too briefly: Why does the world seem to work the way we think it should? Why does it seem to follow the rules we–independent of empirical observation–think it must?
I suppose the point in all of this is that epistemology and metaphysics still has some really deep, outstanding problems, especially problems surrounding the very sorts of propositions that the proof I offered relies on. I’m reluctant to get rid of those kinds of propositions because in a lot of contexts they seem to work. But I’m also not sure how to account for them.

The evolutionary perspective certainly complicates things.
Evolution directly selects for the biologically useful, not for the true. Still, we should expect the useful to have quite a substantial overlap with the true, since it is pretty useful to be able to make accurate predictions about the world and to understand how it actually behaves. And yet on the other hand, evolution will only select for the biologically useful *in the circumstances that our ancestors typically encountered*, which is a fairly modest subset of the things we investigate and reason about today (cave men didn’t need to know about general relativity, or particle physics, or transcendental numbers).
Basically, on the one hand, our deep intuitions into things like numbers seem to hold good in lots of situations that no one prior to the 20th century ever encountered. But on the other hand, if we confine ourselves to such confidence as reflection on evolution can give us, it will always be an open question whether we are irresistibly committed to beliefs that were once useful heuristics or approximations, but are not strictly true (maybe 2 and 2 doesn’t always equal 4).
Sure, maybe we got lucky–the world does, universally, operate on some fairly simple rules, and we happened to evolve to the point that we could readily grasp those rules. But we have no guarantee, so we end up back at Kant’s divide between the noumenal and phenomenal.
The philosopher fish assumes the water is necessary.
The philosopher bird assumes the air is necessary.
A world of only contingent beings is not possible.
Perhaps what is non-contingent is being itself. It is Nothing that cannot exist. As a corollary, Everything that can exist, must exist.
We suspect that there are things that could be otherwise but how do we know this?

Perhaps what is non-contingent is being itself. It is Nothing that cannot exist. As a corollary, Everything that can exist, must exist. We suspect that there are things that could be otherwise but how do we know this?
I don’t think you are wrong.
As to the first part: That is just what it means to conclude that there is at least one necessary being. And it matches up quite nicely with the traditional interpretation of the proof: God himself–ipsum esse subsistens–must exist, he cannot not exist. (Although the proof can’t tell us whether that God is some transcendent being in himself or something that is coextensive with the world.)
The second part–the suggestion that everything that can exist, must–gets to the thorny questions of contingency, possibility, free will especially divine free will as it relates to creation.
It would be satisfying if we could just get rid of contingency altogether, and I do incline in that direction. It is also part of the allure of the many-worlds hypothesis: we don’t need to explain the peculiarities of our world (think fine tuning); all possible worlds do in fact exist, and by the anthropic principle, it just looks to us like our world was designed for us.
As to the first part: That is just what it means to conclude that there is at least one necessary being. And it matches up quite nicely with the traditional interpretation of the proof: God himself–ipsum esse subsistens–must exist, he cannot not exist. (Although the proof can’t tell us whether that God is some transcendent being in himself or something that is coextensive with the world.)
But what is more contingent than personality? A personal god, a god with desires and preferences, must be contingent. “Being itself” must be logically antecedent to any qualities. (And why call it “god” anyway?)
I suppose my point is ultimately that a “necessary being”, a “ground of being”, non-contingent, cannot be identical to the Christian God. Shhhh…nobody tell David Bentley Hart!

No, again, quite right.
I’d clarified earlier–which at this point was at least a page back–that I did not think the necessary being was anything like the personal God of Christianity. I think the argument works in proving a necessary being, I just don’t think it gets us the God that most people would recognize as “God”.

The post is asking what “you” think.
Scholars of Literature aka Historians are automatically disqualified because once at the Doctorate degrees they had no time to ever have their own thoughts free from the rules of academic success.
They will never find answers or have their own thoughts.
BDEhrman
FreedomBen
evgendob
Robert
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