Examples of using Their cores in English and their translations into Ukrainian
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Colloquial
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Ecclesiastic
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Computer
Stars such as our Sun burn hydrogen in their cores for most of their lives.
Perhaps the dark clusters contain black holes orother dark stellar remnants in their cores?
They are not massive enough to fuse hydrogen in their cores but are larger than giant planets such as Jupiter.
Sometimes these clumps reach acritical density that allows stars to form at their cores.
Those stars then produced elements heavier than helium in their cores and seeded the universe with them when they exploded as supernovae.
Main sequence stars, like our own Sun, create elements slowly,but surely within their cores.
These stars, in contrast to the Sun,have already burned all the hydrogen in their cores and switched to the stage of compression, burning more fuel, and helium.
Smaller, low-mass stars- stars about the size of our own Sun-fuse hydrogen and helium together in their cores.
They are young stars that have notyet started to shine by nuclear fusion in their cores and are still surrounded by glowing gas[1].
Brown dwarfs can fuse deuterium and lithium,but never reached the size required to sustain hydrogen fusion in their cores.
When stars get very old,eventually they run out of free protons and their cores start filling up with an ash of fused protons- in other words, helium nuclei.
These bright blue stars have exhausted their hydrogen fuel andare now fusing helium in their cores.
The source of energy of these stars is, as always, the fusion of hydrogen in their cores, and their surface temperaturas and luminosities are almost constant with time.
These stars do not have enough mass to create thepressure necessary to make the nuclear burning in their cores go any faster.
Unlike modern stars, which are powered by nuclear fusion in their cores, a quasi-star's energy would come from material falling into a central black hole.[1].
Brown dwarfs lack sufficient mass(about 80 Jupiters)required to ignite the fusion of hydrogen in their cores, and thus never become true stars.
While most, if not all, large galaxies feature such gargantuan black holes in their cores, earlier studies suggested little left-over gas and dust- the presumed“food” needed for a supermassive black hole to develop- after a galaxy's initial burst of star formation.
They are composed largely of refractory minerals, such as the silicates--which form their crusts and mantles--and metals, such as iron and nickel,which form their cores.
If Newton's constant really is constant, then stars should slowly increase in brightness and temperature over time,because as they burn hydrogen in their cores, they leave behind an inert lump of helium.
They are composed largely of minerals with high melting points, such as the silicates which form their crusts and mantles, and metals such as iron and nickel,which form their cores.
A team of astronomers led by Brendan Bowler of The University of Texas at Austin has probed the formation process of giant exoplanets and brown dwarfs, a class of objects that are more massive than giant planets,but not massive enough to ignite nuclear fusion in their cores to shine like true stars.
For their core, gold beads are also used.
At their core, they are more flexible and global.
At their core, they're doing something very simple.
Their core conclusion?
People are good, at their core.
Their core value is FREEDOM.
Their core complaint is a hike in diesel taxes.