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matter destroyed and speed up by blackhole and expelled = super "liquid" energy
meta field loop = path for super "liquid" energy
meta field twist = super "liquid" energy "twisted" from plane of interaction
perpendicular area = super "liquid" energy "twisted" into plane of interaction
matter = super liquid energy vibrating nuclus and inducing electron orbit
dark energy = area where meta field is horizontal to plane of galaxy and out of plane to source (black hole)
so in the solar system you have your elipses (on a much smaller scale) and you have outward projections of meta fields how do they interact?
Originally posted by kwakakev
reply to post by XPLodER
On the top side of the galaxy we will give this a +ve type charge and the bottom side has a -ve type charge. All the suns and planets are in the middle where they meet along the galaxy plate. The place where they meet exactly is in the centre of the suns. The helio bubble that contains the solar system acts like a magnify glass to focus the energies from the field loop. As all this energy is concentrated in the sun, new matter is made with heat and light also produced. The energy expressed by the sun from the helio field is similar to the attractive force when the +ve an -ve ends of a magnet meet.
good way to visualize it as neg and positive remember that like poles repell and unlike poles attarct
The energy and partials released from the galactic centre are out of phase / polarized until they recombine with in the centre of the sun and phase back in to our general observable reality. What is seen with the corona is the field loop returning back into phase combined with the energy that is being released after being recombined in the sun. The focusing of the helio bubble does have an effect on the suns discharge, more so in the long term than in the short term as it does take time for the matter to recombine and work it's way out of the sun and back into space.
the black hole is consumer of matter creater of meta energy the sun is creater of matter and the consumer of meta energy
the helium and hydrogen is attracted to the electro static process
The sun and the galactic centre are both very different mechanism that operate with similar forces. A bit like the heart and other muscles of the body. The helio shock has quite a force indeed, must be another opposing force to pull up the momentum that quick. Perhaps it is at the limit of the field loops?
the helio shock is the limit of the secondary outwards meta fields at the point they turn 90 degrees to the source (sun) and out of plane with the sun at the boundries (helio)
so in the solar system you have your elipses (on a much smaller scale) and you have outward projections of meta fields how do they interact?
An ellipses is the shape of a meta loop. A meta field is all the meta loops at a specific frequency or energy.
Dimension = variable =(plane of orintation/source)
Plane = relationship between two variables =(relationship between meta twists)
Plate = Flat circular description for the matter we can see in the galaxy =(flat galaxy plane)
Phase = Frequency distribution =(dimention/plane) current or potential pressure out of dimentional plane with source
xploder
The place where the opposing forces from the galactic centre exactly meet is in the centre of a sun or all atomic matter?
Helio
The helio bubble that contains the solar system acts like a magnify glass to focus the energies from the galactic meta field and contain the meta field from the sun. The focusing of the helio bubble does have an effect on the suns discharge, more so in the long term than in the short term as it does take time for the matter to recombine within the sun, work it's way out and back into space.
Do you have a diagram of the helio structures?
I think we are starting to redefine dark energy as meta energy, a small step forward. I would also like to get ride of the generic black hole term as there are different types of gravity sinks.
Next week I’ll be reviewing Richard Panek’s The 4 Percent Universe (Houghton Mifflin Harcourt, 2011), a penetrating look at our investigations of dark matter and dark energy. But plenty of information has also come out of the American Astronomical Society’s 217th meeting, which ended yesterday. We looked at interesting gravitational lensing results in the previous post, pondering how they affected our census of high-redshift galaxies, but equally intriguing is a study of 14 massive galaxies that helps us map out the distribution of dark matter within them.
If you simulate the effect with a galaxy made entirely of stars and completely devoid of dark matter, you do not get the Chandra results. Run the same simulation with a galaxy made entirely of dark matter and the results again diverge. Pooley’s team found that to match what Chandra sees, the galaxies must consist of 85 to 95 percent dark matter in the region through which the background light from the quasars passes. Interestingly, these regions are between 15,000 and 25,000 light years from the centers of the lensing galaxies.
What’s going on? The aggregate gravitational field from all the matter in the foreground galaxy produces the gravitational lensing effect, creating the four distinct images of the distant quasar under study. And as the light passes through the lensing galaxy, it is also affected by the individual gravitational fields of the stars within the galaxy, what Pooley calls ‘lensing on top of lensing.’ How much the light is thus affected depends on both the number of stars and the amount of dark matter in the regions of the galaxy through which the quasar’s light passes.
If you simulate the effect with a galaxy made entirely
you have got it!!
Pooley’s team found that to match what Chandra sees, the galaxies must consist of 85 to 95 percent dark matter in the region through which the background light from the quasars passes
Interestingly, these regions are between 15,000 and 25,000 light years from the centers of the lensing galaxies.
What’s going on? The aggregate gravitational field from all the matter in the foreground galaxy produces the gravitational lensing effect, creating the four distinct images of the distant quasar under study
a study of 14 massive galaxies that helps us map out the distribution of dark matter within them.
Image: Model prediction of what the four images of the background quasar RXJ 1131-1231 should look like, as lensed by an intervening galaxy (left). Chandra X-ray observations show a strong anomaly in the middle of the three images on the left side of the panel (right). Credit: D. Pooley (Eureka Scientific).
Pooley’s team found that to match what Chandra sees, the galaxies must consist of 85 to 95 percent dark matter in the region through which the background light from the quasars passes. Interestingly, these regions are between 15,000 and 25,000 light years from the centers of the lensing galaxies.
Originally posted by kwakakev
you have got it!!
It was quite a challenge translating the super geek into English, but yeah it does make sense. Sounds like there has been a massive amount of work going on to work out how it all works. You done a fantastic job in stepping me through it, cheers.
my language is not always correct so im glad you could understand me lol
So for the atoms in our solar system there is more a direct influence from the sun's meta field and therefore an indirect influence from the galaxy's meta field. So where the opposing forces from where the galactic core exactly meet is in the centre of the sun.
one of the shapes that are important is the sphere as it naturally focuses to a center.
The helio structures do look very similar to the Earth's Magnetosphere in the way it is distorted from the solar winds. With the compression side of the helio, is that aligned to the galactic core, or is it aligned with the direction of spiral travel around the galaxy?
i am unsure of orintation with galactic center with reference to heliosphereical flat plane (galactic disc)
for equalibrium to occour in the centeral plane the flat plane of the heliosphere (solar disc) would be on the same plane and rotation, but in an oposite direction to the rotation of the galactic plane.
Pooley’s team found that to match what Chandra sees, the galaxies must consist of 85 to 95 percent dark matter in the region through which the background light from the quasars passes
How does this 85 - 95 percent relate to the meta fields of a magnet? It is expected that different types of magnets will produce varying percentages, but there is still a lot of energy that is not accounted in the physical part of the magnet.
the light from the backround galaxy is obscured by "dark matter" aka META field at a 85-95 % twisted out of plane with the rest of the lensing galaxy
Interestingly, these regions are between 15,000 and 25,000 light years from the centers of the lensing galaxies.
This sounds reasonable, maybe even further for some of the meta loops. The distance between our galaxy and Andromeda (the closest) is 2.5 million light years. I would expect some similarities between scales of meta fields, eg how our solar system relates to Alpha Centauri and even how one atom relates to another.
it is interesting that one though experiment has linked galaxy to helio to atom with a theoretical
elipsed twisted field effect
What’s going on? The aggregate gravitational field from all the matter in the foreground galaxy produces the gravitational lensing effect, creating the four distinct images of the distant quasar under study
As the light from the distant quasar approaches the middle galaxy, the gravity from the meta field bends the path of the light and splits it into top, bottom, left and right. The meta field makes the light to curve around the galaxy instead of pushing straight through it. Light is a type of energy so the meta field can influence it, a little anyway.
a study of 14 massive galaxies that helps us map out the distribution of dark matter within them.
It is great to hear some of the equations are starting to add up.
its interesting that discusing and trying to explain the idea has increased my knowledge of how it works.
thanks for translations into coherent ides lol
xploder
the distence from source or center is aprox correct for the location of a meta field twist in my models the reason some of the backround image is obscured is because the images are traveling through a galaxy dircetly through the twisted portion of the meta field. imho this is an example of a meta field in its twisted state directly infront of an observable lensed object showing the distortion of light when transversing through the meta field in a twisted state.
i am unsure of orintation with galactic center with reference to heliosphereical flat plane (galactic disc) for equalibrium to occour in the centeral plane the flat plane of the heliosphere (solar disc) would be on the same plane and rotation, but in an oposite direction to the rotation of the galactic plane.
i suspect the flat plane of the solar system is in alinment with the galaxy plane but have no idea why
i think there are three vectors at work and this is producing a curve exactly how that works is a work in progress for me.
for interaction with other stars i suspect the meta feilds would be connecting the meta feilds in a common "meta field" at the point of termination. again still a work in progress.
again still a work in progress.