Why does the dark matter is located on the interior of the galaxies?
Dark matter accumulates
mainly in the inner part of the Galaxy, but partly outside of the Galaxy there
is a halo of gas composed primarily of ions, according to this study the dark
matter would be over this gas, but in another State of matter, this gas at
lower speed of rotation of the Galaxy would you change phase, by which this gas
would be on the inside of the galaxies, in the form of ion crystals.
Introduction;
Much of the universe is made of a component that does
not interact with light, but that is matter, because it generates gravitation,
so is called dark matter, and is five times more abundant than the matter that
we know and we can observe. A research published today in Nature Physics
demonstrates for the first time the presence of dark matter in the internal
regions of the Milky Way. An international group of scientists has examined the
measures of the rotation of the galaxy existing and has been found that can be
explained only if there are large quantities of dark matter between the earth
and the center of this set of stars, what is known as the interior of our
galaxy.
New data from collisions of protons of high-speed in
Large Hadron Collider in Europe (LHC) showed a particle exotic nicknamed the
"quark beauty" is behaving as predicted by the Standard Model. Previous
attempts to measure the processing rare beauty of quark in one of the so-called
contradictory results "quark up" had ceded. This led scientists to
propose an explanation beyond the standard model.
Supersymmetry, SUSY, for short, is one of the alternatives
proposed to explain these inconsistencies, postulating the existence of a
heavier "brother" of every particle in the universe.
Supersymmetry, developed to fill the gaps in our
understanding of particles and forces known, postulates that every fundamental
particle has a supercompanero still-to-be-discovered. It turns out that the
lightest of the Group has properties that make it one of the main of the dark
matter.
"The lightest supersymmetric WIMP is stable and
is not allowed to decay into other particles.
Where are the missing
baryons? Perhaps in a diffuse gaseous halo around the
Milky Way. X-ray satellites have detected oxygen atoms
in our galaxy that have lost most of their eight electrons, a
sign they inhabit gas that is millions of degrees hot—far hotter than the
surface of the sun. But since we don’t know how far these fried oxygen atoms
are from us, we can’t accurately gauge the size of this component
of the galaxy. If they're fairly close to the disk, then this so-called
circumgalactic medium isn't extensive and therefore doesn't amount to much. But
if they're far away, spread throughout a gargantuan halo, this
gaseous material could outweigh all of the galaxy's stars, providing fuel
for star formation for billions of years to come.
A ion or ion1 ( "going", in Greek; ἰών [ion] is a charged
particle electrically formed by an atom or molecule that is electrically
neutral. Conceptually this can be understood as, from a neutral state of an
atom or particle, have gained or lost electrons; this phenomenon is known as
ionization.
A Crystal or crystalline solid is a solid material of whose
constituents, such as atoms, molecules, or ions are arranged in a microscopic
highly ordered structure, forming a crystalline network extending in all
directions.
The crystals are distinguished by the anisotropy of
properties (it is not the same in all directions) and by the existence of
elements of symmetry.
As the Crystal is electrically neutral, if the ions
have different load this will determine the stoichiometry and, therefore,
structure and the index of coordination.
Ionic crystals have two important characteristics:
they consist of loaded links and anions and cations are usually of different
sizes. It is hard and brittle at the same time. The force that holds them is
electrostatic and with a high melting point.
Results;
The dark matter accumulates mainly in the inner part
of the galaxies, and in the part of outside of the galaxy there is a halo of
gas consisting mainly of ions, also the best candidate of dark matter known as
WIMP, in addition to not having been detected by the scientific laboratories of
the world, scientists found the answer to the anomaly within the standard
model, which would leave it virtually unsupported theoretical.
Based on this information I can conclude that the dark
matter, with characteristics that scientists know it (invisibility, effect lens
and anisotropy), lies mainly in the center of galaxies, because the rotation
speed is slower than on the inside that on the outside of the celestial bodies
and galaxies, on the assumption that the dark matter is made up of crystals
Ionic , which for its high melting point, the be exposed to greater speed of
rotation, this with would lead to a change of phase, a neutral Ionic Crystal in
the inner Galaxy, to an ionic gas in the outer part of the Galaxy, which leads
to another conclusion that the halo of ionic gas that surrounds the Galaxy is
also dark matter.
We can also say that these ionic crystals, with its
features of electrostatic and high melting point, can generate an electric
field the be in contact with each other, or the enter in contacts with other
solid materials, and their characteristic of high fusion makes it sensitive to
phase changes quickly. Now based on the principle that the dark matter fills
the universe, and their behavior in the galaxy should be equal on earth, we can
say that the force electrostatic on earth, mainly the one that we experience in
cold climates, is produced mainly by these ionic crystals in the air.
Conclusion;
Dark matter, with characteristics that scientists know
it (invisibility, effect lens and anisotropy), lies mainly in the center of
galaxies and celestial bodies, because the speed of rotation in the interior
part of the celestial bodies and galaxies is slower.
Bibliography;
http://www.quimitube.com/videos/fundamentos-del-enlace-ionico-y-tipos-de-redes-cristalinas

