BURNED OUT 'DARK CINDERS' DENSLY PACK M15
SPECULATIONS ON THE CONSTRUCTIONS OF GLOBULAR CLUSTERS
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ROSETTES
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HUBBLE M15
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TINY ATOMS
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OTHER CLUSTERS
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ULTRA VIOLET M15
I like speculating as much as the tony in the other door. Here is
my current speculation about Globular Clusters of stars, such as
M15, (also Ngc 7078).
In an image like this it is impossible to escape the notion that stars
are following each other like imprinted baby geese in closely packed
curved rows. The common term is necklaces - that stars are ordered in
necklaces, stars following one another close together in curved lines,
forming necklaces. Necklaces seem everywhere, of short length up to
a dozen or more stars all in a row, some necklaces longer.
Two images side by side means you focus the two together in overlay to
see stereo, that way, the necklaces stand forth in clearly seen different
planes and angles.
There seems no limit as to star size some are bigger (or at least
brighter) than others one against another in a star necklace. There
also seems no restrictions as to radii size of the star necklace
curvatures, some seem able to complete a closed circle with only a
few more stars added in a string which has only a handfull of stars
to begin with. Other necklaces are strung out in large open radii of
curvatures.
It seems possible that star necklaces can get organized then get broken
up leaving two segments, and other star necklaces can hook up creating
longer temporary single versions. It is possible to see in visional
innerscape that necklaces are the basic component of globular clusters
and are constantly regrouping and reforming like gene splices in a
primordeal pea soup which keeps slowly evolving, making amino acids,
breaking up the acids, making new aminos all over again as the stars
and necklaces hurtle around each other in closely packed chaotically
elliptical orbits (like asteriods in chaotically elliptical orbits
which never repeat).
An observer might think that stars herding in a crescent or arc
must be orbiting some common strong local gravitation point to so
stay together in 'orbit' but another answer seems more likely since
nothing is seen that can keep stars 'orbiting' around a common point
of center at a common radius.
Instead, importantly, the necklaces themselves can orbit when angular
momentums in each star of a necklaces are summed up on the right
trajectories. It is possible that necklaces yin and yang, that is,
constantly change their curvatures and radii as they orbit, their
stars still clinging together in a chain like a piece of bead chain
pull cord writhing in a contorting string when flying through the air.
At the center of such a globular cluster as M15 is speculated to
reside a powerful small black hole. If there, the black hole does
not need to be circular or diskally flat, in which case its oddball
non-disk non-sphere topology would be constantly tossing gravitation
gyrations into the mix causing necklaces to accelerate and hurtle fast
in one direction, and another necklace to hurtle away slowly in another
direction, which is why there is not smooth orbital coherency among the
stars like rings around a planet, or like concentric shells around an
egocentric universe with the black hole a god at center singly smiling
as it lords a perfect unchanging domain.
After N billions of years you would think the stars could gain orbital
coherency around a strong center point within the globular cluster but
this is not the case in any globular cluster seen by telescope and part
of the charm of antronomy second guessing is how stars can stay within
globular clusters when whizzing around at such high velocities. Strings
are a partial answer, stars in necklaces, like snapping whips the higher
velocity at one end of a necklace is countered by slower moving stars at
the other end, or middle, levelling out the momentum playing field and
preventing stars from hurtling off to become wandering celestial cowboys
alone and finally winking out somewhere in the galaxy).
Radial rosetts made of stars in coherent prismatic formations are another
factor seen in Globular Clusters (as well as in
small galaxies).
Here is a radial rosette in M15, seen in the upper right quadrant in
this image.
A spray of lines shoots vertically out from the center hub of the rosette,
which means a possibility that something in the hub is generating transmuting
forces that 'feels' outward at long distance.
Very subtle, that might be a crease seen in the left hand side of
the rosette. If real, it means the rosette has a fractal six-sided
cleavage, which is best illustrated next by a gold crystal magnified
40,000 times.
It is my guess that such rosettes are formed by gravitational gradiants
radiating off one end (pole) of the globular cluster's core, in which
case, another object - perhaps rotated in sharply opposite angles or of
an entirely different kind of coherent figure - is to be found on the
opposite side of the core from the radial rosette. In which case, the
radial rosette (and opposite coreside figure if existing) form positive
and negative poles whose force kenetics extend to the ends of a long axis
to long distances from the core itself.
In the case of M15, because we can see the radial rosette in the
front plane, the polar opposite pole's figure is unseable by us,
hidden behind the scenes. The rosette we see is seen at an oblique
angle and so seems compressed toward oval shape. It is my guess
that if seen face-on hovering directly over it, the rosette could
be quite circular, and perhaps would have a bias along one edge
dipping toward the core.
In fact, another rosette, closer to the core, is seen in the lower left
quadrant. This rosette constructs of coherent circles. A curved necklace
on a different plane twines into the figure from a source near the core.
Exposure to three enhancements, instead of one, better makes the picture
see. This concentric circles rosette is in a polar opposite position to
the cleaved rosette examined further above in the upper right quadrant.
CENTER CORE ROD
Look at the hot center of the cluster. Granted there are stars overlaying
all the way to the circumpherence in our direction, nevertheless some
inner construction is barely visible, and the inner construction is
(in the ultra violet lights of this photo) not diskal or spherical,
it is rod shaped, like a long core of a differential motor. There
is a faint collar around the upper right of the innermost region.
Interestingly, the west end of the 'rod' points specifically to the
circular rosette formation spotted in the outer congestion of seeming
teeming chaotic stars, and not along the axis indicated further above.
The east end of the 'core rod' points to an area at the top of the east
side fractal rosette. Core pointing should not
be concidered co-incidental.
There are insects in central Ontario in Canada which glue pond ditrus
around themselves to disguise their hulks as they leg in slow motion up
and down the stems and weeds of a pond. An irregular shaped rod-shaped
black hole should be expected to do no less, wrapping itself with ditrus,
revealing its hidden shape and presence.
HUBBLE VIEWS
In visible light (not ultraviolet) Hubble presents a somewhat different
looking M15 core - the 'rod' is not plainly seen even though star
necklaces of short and long duration are abundantly writhing tight
around the core where the black hole is supposed to lurk working its
ways in mystical silence.
A longer range Hubble view in visible light
colors, in closeup, shows a diskette around mid point center, and
prominent bubble cell walls.
Closeup shows every area densly packed with tiny infintisimo 'atoms'.
BURNED OUT 'DARK CINDERS' DENSLY PACK M15
Notice how many tiny stars of more or less uniform size are filling
every nook and cranny between the larger stars. There may be more
than the officially estimated 100,000 stars in this globular cluster
if the sheer number of infintesimos (tiny stars) have not all been
counted. The 'infintesimos' are so numerous they almost seem to
be solid in there densly packing every nook and cranny.
In telescope star resolution (not pinpricks far apart instead bold beads)
the tiny red stars fill every crevace in myriads like tiny atoms packed
nestled together amongst big atoms in an electron microscope scene.
If not already counted, how much more gravitational mass-weight do
these 'infintesimo' stars add to the globular's total. It is like
finding for the first time that crystal glass (leaded glass) is
made of densly packed lead atoms not seen in usual ways looking
through the glass since the lead atoms are spaced far enough apart
in the silicone compound to be transparant so are not seen solid like
a brick of lead, even though they have lead related weight. (Crystal
glass can weigh a ton yet be more brilliantly transparent than ordinary
glass). The M15 'infintesimos' were not seen clearly in their densly
packed way until the images were very highly enhanced, in red color
in particular. There are no empty areas without
tiny atoms peeking through.
I am guessing that the 'infintesimos' or at least some of them, are
small 'dark cinders' of burned out stars. Missing mass speculators are
suggesting a major population of burned out star cinders crowding
galactic halos. Perhaps their thoughts are on the right track since
burned out cinders seem to be crowding the M15 globular cluster with
dense tiny atoms of barely seen starlight.
Image 1
Image 2
Image 3
A question obviously raised is how many 'stars' seen in Image 3
are shining through from the Milky Way behind, or are in the Milky
Way foreground. Strong blue vrs red enhancement shows a star density
picture not much different than the saturation of red enhanced stars,
so starlight captured in different frequencies is not going to give
a quick answer with this Hubble photo.
Image 4
Image 5
Image 3
I have to implicate the darkness and suggest there could be many more
dark cinders (infintisimos) out there in the outer fringes unseen. More
are clearly seen in the center area simply by being illuminated in light
cast from the inner neighborhood's crowded bright star population. Hints
are clear enough that the small dim stars in the darkness (those that have
been revealed by the illumination of high enhancement as shown in the
five large profiles above) are also organized in necklaces and short
compact strings as are the infintisimos of the
innermore regions of the bubble laced globular.
Many v-shaped (folded) leaves of different sizes, ending in chevron
tips, are sticking out around the left flank of the core, this HAS to
be significant in some way in indicating the way forces hork out in
semi-stable organizations, v-shaped leaves and chevrons are a common
feature seen in intense nebulas from exploding or puffing stars.
A really good example of chevron (folded leaf tips) is seen in
nebula Ngc 2440.
A final question has to be raised, and this is a question as to how
many of the stars seen in runs of parallel lines are sitting organized
along the crests (or alternatively in valleys) of
gravity waves.
That, cough, ahem, ends the speculation. Any more at this point by me
would be, I think, foolhardy.
OTHER STAR DENSE SAMPLES
Look at the population of the tiny red 'atomic' stars coaxed out of
hiding by tongue out enhancements of a famed Hubble image of a star
area in the Tarantula nebula. The image is famous in being one of
the very first Hubble images which actually showed s t a r s
.
Necklaces and string beads are a way of life for these tiny dim stars
as well. Both red and blue color adjustments were used, indicating that
such stars also post notice of themselves in blue, as well as red,
starlight.
The above star cluster is featured in a GIC
look at 30 Doradus.
OTHER CLUSTERS
I went to a Hubble
public images site to find the original starcluster image in 30
Doradus, could not find it. Instead I downloaded several starcluster
and globular cluster Hubble images at random and looked at them for
hidden atom star content.
I did their images in a hurry without too much regard as to best
enhancing possible. The results are still good, that is, that you
can see hosts of small star populations filling dark regions in
original images, as well, necklaces and star chains are everywhere.
Image 1 Image 2
Image 3 Image 4
Image 5 Image 6
Image 7
Next is an example of the kind of content expansion and image quality
gained in the GIC (my) approach to image enhancements, stars with disks
expand to vast lineally radiant areas around each star, the extended
radians not seen in the Hubble originals. Surely astronomers must have
been aware of the radians, as well as the donut disks, and chose to
show only the disks in keeping with the thrust of their
captions and disclosures.
I prefer to see both the disk and the radians together because this way
I can cogitate in the quiet backgrounds of glimmering mind as to why a
star is producing both a disk and radians simultaneously - the radians
at this moment supposed extra intense coronal discharges such as seen
more sedately at our Sun during a total solar eclipse. For example,
the radians around the left hand star extend into space a distance
many times the orbit of Neptune, and at that, only a portion of the
radians have been captured onscreen - what an eclipse THIS would be if
we could see it closeup.
One of the downloads at random is this, next, the globular cluster known
as Omega Centauri said to have millions of stars packed into it. Densly
packed globular cores are already well known, here is the core of Omega
Centauri by Hubble, it is fabulously packed with atoms and necklaces. In
this image, no distinct formation recognizable as 'core' is seen, probably
the 'core' is behind a firewall of solid stars.
More images of rosettes, woodticks, creases, and hexagon objects in
nebula, star fields, and galaxies, can be seen in the GIC 'tympani
resonators' collection.
Tympani.htm
Tympani2.htm
Tympani3.htm
Hexagram.htm
Globular.htm
Prisms.htm
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Web site/display/designs/image enhancements - Greydon Moore
World's largest cosmic teaching site - Ottawa 2001/2004
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