Приклади вживання Visible matter Англійська мовою та їх переклад на Українською
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Where does the visible matter come from and where does it disappear?
Of the universe is considered to be visible matter.
Normal visible matter, like stars, planets and galaxies, accounts for less than 5% of the Universe.
Only about 5% of the known universe is composed of visible matter.
It also determined that visible matter accounts for only a little more than 4% of the mass of the universe.
This phenomenon only occurs in plasma,but plasma makes up most of the universe's visible matter.
There is no evidence, despite its assumption, that the visible matter in the universe is homogeneous at any level.
According to the standard model of physics, gluons are the subatomicglue that keeps 98 percent of the universe's visible matter together.
Gravity calculations using only visible matter in galaxies showed that the outer stars should have been moving more slowly.
Despite the new results,the Milky Way certainly rotates much faster than the visible matter alone can account for.
In fact, the observed ratio of dark matter to visible matter in a typical rich galaxy cluster is much lower than predicted.
Although it is not directly observable, scientists know dark matter exists by determining its gravitation effects on how visible matter moves and is distributed in space.
According to current cosmological models, a galaxy's visible matter, such as stars, gas and dust, accounts for a mere 15 percent of its mass.
Primordial black holes with masses more than a thousand million tons(the mass of a large mountain)could be detected only by their gravitational influence on other, visible matter or on the expansion of the universe.
In most regions of the universe, dark matter and visible matter are found together,[53] as expected due to their mutual gravitational attraction.
Decades of galaxy observations have shown that almost all galaxies contain huge quantities of this“dark matter,” and that, in fact, there is about five times asmuch dark matter as there is normal, visible matter in the universe.
Its existence and properties are inferred from its gravitational effects on visible matter, radiation, and the large-scale structure of the universe.
As the names would suggest, we cannot see them, so their existence has had to be inferred based on theoretical models, observations of the large-scale structure of the Universe,and its apparent gravitational effects on visible matter.
Its existence and properties are inferred from its gravitational effects on visible matter, radiation, and the large-scale structure of the universe.
As the names would suggest, we cannot see them, so their existence has had to be inferred based on theoretical models, observations of the large-scale structure of the Universe,and its apparent gravitational effects on visible matter.
What I mean by this is that although when you look through a telescope nothing appears to be there, the way that the visible matter moves indicates that there must be more mass present.
Vera Rubin and Kent Ford Jr. mapped the motions of stars within galaxies close to our own Milky Way, and they also concluded that each galaxy had to include enormous amounts of unseen matter, far more than all the visible matter.
The existence andproperties of dark matter are inferred from its gravitational effects on visible matter, radiation, and the large-scale structure of the Universe.
In the late 1970s, astronomers Vera Rubin and Albert Bosma independently found that spiral galaxies rotate at a nearly constant speed- That is, the velocity of stars and gas inside a galaxy does not decrease with radius,as one would expect from Newton's laws and the distribution of visible matter.
The existence andproperties of dark matter are inferred from its gravitational effects on visible matter, radiation, and the large-scale structure of the Universe.
In fact, the observed ratio of dark matter to visible matter in a typical rich galaxy cluster is much lower than predicted.[15] This may indicate that the prevailing cosmological model is insufficient to describe the mass discrepancy on galaxy scales, or that its predictions about the shape of the universe are incorrect.
Dark matter, too, plays a big role,as it provides for most of the gravitational force acting on the visible matter in a galaxy, pulling in cold gas from the galaxy's surroundings and heating it up in the process.
Dark matter, too, plays a big role,as it provides for most of the gravitational force acting on the visible matter in a galaxy, pulling in cold gas from the galaxy's surroundings and heating it up in the process.