Khallow, with all due respect, you appear to be refusing to learn about what a drift current is. We already see that charged particles, when subjected to the electric field of an electric discharge, can actually flow upstream of an outflow of positively charged particles being accelerated away. This is what happens when high-voltage DC trolley lines ionize the surrounding air. The transmission line is the anode and the surrounding atmosphere is the virtual cathode. The same thing also happens in a glow discharge. If you are having problems believing it, then you should get your hands on the Cobine book that I liberally referenced. Wal Thornhill has come to see that book as being the most useful book available for understanding glow discharges.
From Wal Thornhill's book "The Electric Universe" ...
When a theoretical model is not working, the logical thing to look for is a trend toward growing anomalies. Below we offer a partial list of solar features that cause problems for mainstream theory but are expected in an electrical model. As the reader will note, the list includes almost all of the prominent attributes of the Sun:
- Solar spectrum. The spectrum of light from the Sun is characteristic of electrical discharging. Thus the leading solar physicist, Giorgio Abetti, uses the terms âelectric arcâ(TM) and âlightning flashâ(TM) when explaining the solar spectrum and solar flares. More recently, micro-flares have been discovered to occur every few minutes on the Sun, comparable to scaled-up thunderstorms on Earth.
- Neutrino deficiency. Solar physicists have acknowledged for decades that the Sunâ(TM)s output of neutrinos, a by-product of nuclear fusion, is about 1/3 of that expected in the standard solar model. Three types or âflavorsâ(TM) of neutrinos have been identified, and recent attempts to solve the problem require unwarranted assumptions about neutrino âchange of flavorâ(TM) en route from the center of the Sun. An electric Sun, however, can generate all flavors of neutrinos in heavy element synthesis at its surface. Therefore, it requires no assumptions about âchanging flavorsâ(TM) to hide the deficit.
- Neutrino variability. The neutrino output varies inversely with the surface sunspot cycle. Were they produced in the nuclear âfurnaceâ(TM) at the center of the Sun, this relationship would be inconceivable, since solar physicists calculate that it takes about 200,000 years for the energy of internal fusion to affect the surface. In the electrical model, more and larger sunspots mean less âlightningâ(TM) at the surface, where the nuclear reactions occur. Thus, the decline in neutrinos with increasing sunspot number is expected.
- Solar atmosphere. As pointed out by astronomer Fred Hoyle, given the strong gravity and 5,800 degree temperature of the Sunâ(TM)s photosphere, a very thin atmospheric âskinâ(TM) should be expected on the Sun, perhaps a few thousand kilometers thick on a sphere 1.4 million kilometers in diameter. Instead, the atmosphere balloons out to 100,000 kilometers, where it heats up to a million degrees or more. From there particles accelerate out among the planets. Thus, it could be said that we orbit inside the Sunâ(TM)s atmosphere! None of this makes any sense for a 5,800-degree body radiating its heat into space. It makes perfect sense in a plasma discharge, with the Sun acting as an anode.
- Neutrinos and solar wind. Neutrino counts have been found to wax and wane with the flux of particles in the solar wind, a predictable effect if the solar wind is part of an electric circuit fueling nuclear fusion on the Sunâ(TM)s surface.
- Heavy elements. It has long been claimed that heavy elements are born in the flashes of supernova explosions and are then scattered into space, to be recycled into the next generation of stars. But there are far too few supernovae to account for the abundance of heavy elements in stars. An electric star, with innumerable plasma discharge vortexes thousands of kilometers long, possesses the natural particle accelerators and high density to produce the heavy elements right near the surface where their signatures appear in the spectrum. Stars generate their own heavy elements. For example, the Sunâ(TM)s explosions throw âstardustâ(TM) into space where some has been captured and shown to have a âoesurprising abundanceâ of heavy elements.
- Differential rotation by latitude. The solar wind carries rotational energy away from the Sun so that, under standard assumptions, the Sun should rotate slower at the equator than at higher latitudes. In fact, this mechanism should have stopped the Sun spinning long ago. But the reverse is the case. In the electric model, external ring currents couple strongly to the lower latitudes and drive the Sunâ(TM)s rotation, much like a giant homopolar electric motorâ"a phenomenon first demonstrated by Michael Faraday.
- Differential rotation by depth. Solar physicists are also puzzled by indications that the surface of the Sun rotates more rapidly than the deeper layers. To appreciate the mystery, imagine a suspended spinning ball lowered into a tub of still water and spinning faster as a result! The solar wind should remove rotational momentum from the Sun, slowing the surface first. That the surface rotates fastest is direct evidence that the Sun is being driven externally, like an electric motor.
- Equatorial plasma torus. In ultraviolet light the Sun features a hot plasma âdonutâ(TM) encircling its equator. The same phenomenon occurs in laboratory plasma discharges to a positively charged, magnetized sphere. Electrical energy is stored in the âdonutâ(TM) and occasionally released in powerful flares and coronal mass ejections. This also implies that the currents flowing in the solar torus couple with the surface plasma to drive the âanomalousâ(TM) equatorial rotation (see also p. 61).
- Sunspots. The standard solar model neither requires nor predicts sunspots, much less their elaborate cyclical behavior. In the laboratory torus experiment noted above, discharges fly from the torus to the mid- to low-latitudes of the sphere. On the scale of the Sun, such discharges will punch holes in the photosphere and deliver current directly to lower depths, thus exposing a view of the cooler interior.
- Sunspot migration. The strange latitudinal migration of sunspots is replicated in the torus experiment by varying the power input. The higher power produces maximum activity near the equator. That sunspots are formed by attractive parallel electric currents, not merely âmagnetic effects,â(TM) is shown by the mutual attraction of spots having
the same magnetic polarity. Like poles of magnets repel!
- Sunspot penumbra. High-resolution images of the rope-like filaments that surround the dark inner umbra of large sunspots show the distinctive characteristics of tornadic charge vortexes. By giving us a peek beneath the tops of the tornadic lightning columns, sunspots enable us to view directly the solar electrical tornadoes that heat and project gases upward into the bright photospheric granules (see information panel p. 55). In plasma laboratories, this granulation is called âanode tufting.â(TM) For the standard solar model, sunspot penumbrae remain a mystery.
- Sunspot cycle. There is no coherent explanation for the approximate eleven-year sunspot cycle. In the electrical model the sunspot cycle is induced by fluctuations in the DC power supply from the local arm of our galaxy, the Milky Way, as the varying current density and magnetic fields of huge Birkeland current filaments slowly rotate past our solar system. The solar magnetic field reversals may be a result of simple âtransformerâ(TM) action ( see left).
- Magnetic field strength. The Sunâ(TM)s interplanetary magnetic field increases in strength with sunspot number. Electrically, the relationship is essential, since the interplanetary magnetic field is generated by the current flow to and from the Sun. As the power increases, sunspot numbers rise (reflecting current input) and the magnetic field strengthens.
- Even magnetic field. The Sun has a generally dipole magnetic field that switches polarity with the sunspot cycle (see top of facing page). Unlike a dipole magnet, which has the field twice as strong at the poles as at the equator, the Sun has a very evenly distributed field strength. This oddity can be explained only if the Sun is the recipient of electric currents flowing radially into it. These magnetic field-aligned currents adjust the contours of the magnetic field by their natural tendency to space themselves evenly over an anode surface. An internal âdynamoâ(TM) will not produce this magnetic field pattern.
- Helioseismology. The Sun ârings like a bellâ(TM) and the oscillations at the surface are measuredâ"in a way similar to the study of earthquakesâ"to determine what is going on deep within the Sun. But what is ringing the bell? If the Sun is a giant ball of lightning the question is answered, since a clap of thunder will rattle the windows more readily than will a boiling kettle. More accurately, stellar double layers form part of an electrical circuit, which can readily cause pulsation and changes in size. Both are observed.
- Solar density. It is highly significant that the dominant âringingâ(TM) mode of the Sun occurs with a rise and fall of the Sunâ(TM)s entire surface through 10 kilometers every 160 minutes. As a few specialists have warned, this implies that the Sun is of uniform density throughout, thus negating the conditions for a thermonuclear furnace in a dense core of the Sun!75 But there is no surprise in the case of an electric star, where internal electrostatic forces tend to offset gravitational compression.
- Changing size. Astronomers are baffled by the discovery that the outer layer (1% of the Sunâ(TM)s radius) changes in depth by about 26 km in anti-phase with the number of sunspots. But this effect is predictable behavior for a thin plasma sheath surrounding the Sun. The sheath responds to increasing electrical stress by shrinking.76
The above list of anomalies for the standard solar model surely underscores the fact that it was formulated before science learned all of these dominant attributes of the Sun. Every listed feature, however, follows logically from an electrical model, a fact with far-reaching implications for theoretical astrophysics as a whole.
As you can see, two can play that game.
The electric star model doesn't explain supernovas (especially the consistent Type 1A supernovas that are in conventional theory thought to be white dwarfs stealing material from a second binary companion star). Why do massive stars suddenly collapse if all the action is on the surface?
Who says they are massively collapsing? Don't you realize the model is nothing more than a best guess, derived specifically for the purpose of agreeing with the Standard Model? Lifted from holoscience (http://www.holoscience.com/news.php?article=7hjpuqz9) ...
"We put the theory in the textbooks because it sounds right. But we don't really know it's right, and I think people are beginning to worry," says Robert Kirshner, a supernova researcher at the Harvard-Smithsonian Center for Astrophysics (CfA) in Cambridge, Massachusetts. "We keep saying the same thing, but the evidence for it doesn't get better, and that's a bad sign." Kirshner was among more than 100 experts on stars and their explosions who gathered to discuss their worries last month at the Kavli Institute for Theoretical Physics at the University of California, Santa Barbara. General agreement emerged that the textbook story "is a little bit of 'the emperor has no clothes,' " as Lars Bildsten, an astrophysicist at the Kavli Institute, put it.
"There's a lot of holes in the story." "I wouldn't say it's a crisis," [Kirschner] said. "But if you ask, 'Are the pieces falling into place?' I'd say the answer is no." Understanding type Ia supernovae has become an urgent issue in cosmology, as they provide the most compelling evidence that the universe is expanding at an accelerating rate.
You claim ...
The electric star model doesn't explain red giants. Red giants should be compact bright bluer objects not huge, relatively dim, redder objects. The density of a red giant is all wrong for an electric star, but quite consistent for a conventional model star that has started to fuse helium and heavier elements in the interior.
Well, again no offense, but now you're just demonstrating that you clearly don't understand what the Electric Star Hypothesis says. You appear to not realize -- and pay close attention here -- that the entire HR stellar diagram can be explained in terms of the operating modes of plasmas as observed within the laboratory. We can do away with ALL of the nonsense about stars aging. In fact, we should, because we've already seen stars become younger, get older and become younger once again. The stellar aging hypothesis has effectively become an untestable hypothesis, because when enigmas are noticed they are swept aside by claims that the star has gained fresh fuel.
Red dwarfs are indeed explained in rather great detail in the Electric Universe. And in fact, if you decide to read on, you'll come to find out that planets can actually orbit within the low-temperature, diffuse glowing plasma atmosphere of the red dwarfs. Since these atmospheres contain abundant amounts of water, it is our theory that planets which would orbit inside of those atmospheres would in fact have no seasons. They would receive equal light across their entire surfaces regardless of their orbits. The ramifications for the search for life should be abundantly clear.
But if you refuse to read what these guys are saying, and just dismiss everything in a knee-jerk fashion, then you'll never get to learn about any of that.
You should pick up a copy of Don Scott's "The Electric Sky".