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Combined visible and infrared
images of M104.
Infrared: NASA/JPL-Caltech/R. Kennicutt (University of Arizona), and
the SINGS Team
Visible: Hubble Space Telescope/Hubble Heritage Team
�
May 12, 2008
The Sombrero Galaxy
An �accretion disk� of dark dust and gas surrounds this
mighty collection of 400 billion stars. It is electrical
energy that powers and shapes these features.
M104 is probably
the most spectacular representation of �lens-shaped�
galaxies that has been produced by any telescope. Originally
discovered by Pierre M�chain in 1781 and then added to
Messier�s famous catalog in the same year, M104 remains a
centerpiece of scientific investigation after more than 300
years. William Herschel independently rediscovered M104 in
1784.
The Sombrero
Galaxy is actually much larger than what can be seen in the
image above. The galaxy is surrounded by a halo of stars,
dust and gas that indicate it may actually be an
elliptical galaxy that contains a more robust interior
configuration. Shorter time exposures reveal distinct spiral
arms radiating from the center and it is referred to as a
�spiral galaxy� by astronomers. M104 is surrounded by
globular clusters in the hundreds � a much richer population
than our own Milky Way or most other observed galactic
bulges.
Astronomers have
long maintained that galaxies are clouds of hydrogen gas and
intergalactic dust that have been compressed by gravity
until they coalesce into glowing thermonuclear fires. In the
recent past, the community has also proposed that the
centers of most galaxies contain black holes of unbelievable
magnitude. It is the activity of these �gravitational point
sources� � some as powerful as the gravity field from 200
million stellar masses � that causes the galaxies to spin,
globular clusters to spawn, tremendous jets of gamma and
x-rays that span thousands of light-years to appear, and
(among many other features)� �radio lobes� that are
larger than the galaxy out of which they discharge.
As most
conventional researchers have noted, the fact that galaxies
and other celestial objects spin is attributed to the early
formation of their structure. A galactic embryo is said to
possess an angular momentum that increases as it begins to
fall into its own gravity well. In an oft-repeated
illustration of how this occurs, we can visualize an
ice-skater doing a pirouette. As the skater�s arms are drawn
in closer to the body, the spin-rate increases. Thus, as the
galaxy begins to contract the acceleration of the cloud
increases, causing spiral arms to form, a disk of material
to begin surrounding the central nucleus and globules from
eddy-currents within the gases to condense into stars. This
all occurs because the spin in the cloud overcomes the
gravitational attraction through centrifugal force, throwing
material outward like a drop of paint on a spinning platter.
The Electric
Universe model does not permit the condensation of galaxies
from cold, inert hydrogen and specks of zircon no bigger
than an molecule. So,
what are galaxies?
In 1981, Hannes
Alfv�n presented his hypothesis for �electric galaxies�. He
said that galaxies are actually very much like a device
invented by Michael Faraday, the homopolar motor. A
homopolar motor is driven by magnetic fields induced in a
circular aluminum plate or some other sufficiently
conductive metal. The metal plate is placed between the
poles of an electromagnet that causes it to spin at a steady
rate proportional to the input current. The meter attached
to the wall in most backyards that determines monthly
electric bills is a homopolar motor. So, what does this mean
for galactic genesis and evolution?
Galaxies exist
within an inconceivably large filamentary
circuit of electricity that flows through the cosmos
from beginning to end. There is no way to know where this
current flow rises, or to what electrode it is attracted,
but we see the effects of its electromagnetic fields in the
magnetism and synchrotron radiation that permeate space.
That electricity organizes itself within fields of plasma
that are sometimes larger than galaxy clusters. The plasma
is composed of neutral atoms, but a small fraction of
electrons, protons and other charged particles are also
present. Those particles, and the charge-neutral ones they
sweep along with them, are driven by the larger
electromagnetic field to form �pinches� of matter.
As many of the
plasma pioneers have pointed-out, plasma isolates its
charges within �double-layers� folded inside helical tubes
called Birkeland currents. As the currents propagate, their
mutual attraction causes them to �pinch� into tighter and
tighter helices. In Electric Universe theory, the clusters
that formed in the pinch zones of Birkeland current strands
around M104 show it to be extremely active. The large number
of clusters and a distinct �homopolar disk� are a sign of
electrical activity.
Filaments exist
everywhere: from sparks that leap from doorknob to fingertip
after walking across a nylon carpet, to flashes of
lightning, to collimated �jets� of x-rays that erupt from
the axes of galaxies (and stars), to the cosmic �strings� of
superclusters that make-up the large-scale structure of the
universe. To elicit such displays the forces of gravity and
inertia alone appear to be insufficient.
The primal
electrical energy source is orders of magnitude more
powerful than gravity. The �plasma
ropes� that comprise Birkeland currents attract one
another over distance in a linear relationship, rather than
through the �square-of-the-distance� proportions of gravity.
That makes Birkeland currents the most powerful long-range
attractors (and also short-range repulsors) in the universe.
Electric currents flowing through dusty plasma beget and
sustain the galaxies.
By Stephen Smith
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