It will probably explode as a supernova, leaving either a neutron star or black hole.
When a star exhausts its remaining fuel, it will undergo a series of transformations based on its mass. For example, a massive star will undergo a supernova explosion, leaving behind a neutron star or black hole. A lower-mass star like the Sun will expand into a red giant, shed its outer layers as a planetary nebula, and eventually form a white dwarf.
Yes, all stars run on a limited suppliy of fuel - mainly hydrogen. Some stars burn it very quickly but reach high temperatures, while other lower mass stars burn their fuel more slowly, lasting for longer, but burn at cooler temperatures.
A Type II supernova occurs when a massive star with about 8-20 times the mass of the Sun exhausts its nuclear fuel and collapses under its own gravity. The mass required for a Type II supernova is typically around 8 solar masses.
When a high-mass star runs out of nuclear fuel, it can no longer maintain the outward pressure needed to counteract gravitational collapse. This leads to the core contracting and heating up, eventually causing it to fuse heavier elements. Once iron forms in the core, fusion ceases to be energetically favorable, leading to a catastrophic collapse followed by a supernova explosion, resulting in either a neutron star or black hole, depending on the remaining mass.
Remnants of low mass stars include white dwarfs, neutron stars, and black holes, depending on the mass of the original star. White dwarfs are remnants of stars similar in mass to our Sun, while neutron stars and black holes are remnants of more massive stars. These remnants are formed after the star exhausts its nuclear fuel and undergoes a supernova explosion.
When a star exhausts its remaining fuel, it will undergo a series of transformations based on its mass. For example, a massive star will undergo a supernova explosion, leaving behind a neutron star or black hole. A lower-mass star like the Sun will expand into a red giant, shed its outer layers as a planetary nebula, and eventually form a white dwarf.
Yes, all stars run on a limited suppliy of fuel - mainly hydrogen. Some stars burn it very quickly but reach high temperatures, while other lower mass stars burn their fuel more slowly, lasting for longer, but burn at cooler temperatures.
A white dwarf is a remnant of a low mass star. It is formed when a star with a mass less than 8 times that of the Sun exhausts its nuclear fuel and sheds its outer layers, leaving behind a hot, dense core.
It will start using your minerals. Not sure what happens if you run out of those.
When a high-mass star exhausts its nuclear fuel, it undergoes a series of fusion processes, leading to the formation of heavier elements in its core. Eventually, the core becomes unstable and collapses under gravity, triggering a supernova explosion. This explosion briefly outshines entire galaxies and disperses the star's outer layers, enriching the surrounding interstellar medium with heavy elements. The remnant core can become a neutron star or black hole, depending on its mass.
What actually happens to the types of stars is that the low mass will turn into a white dwarf and the medium mass will turn into a black dwarf and reproduce a nebula
A star must have a mass several times greater than our Sun's to form a black hole. When the star exhausts its nuclear fuel, it collapses under gravity, leading to a supernova explosion, which can leave behind a black hole if the remnant mass is sufficient.
A Type II supernova occurs when a massive star with about 8-20 times the mass of the Sun exhausts its nuclear fuel and collapses under its own gravity. The mass required for a Type II supernova is typically around 8 solar masses.
A high-mass star will use up its fuel faster than a low-mass one. Depending on the amount of mass that remains at the end of its life, it may convert to a neutron star, or to a black hole.
When a high-mass star runs out of nuclear fuel, it can no longer maintain the outward pressure needed to counteract gravitational collapse. This leads to the core contracting and heating up, eventually causing it to fuse heavier elements. Once iron forms in the core, fusion ceases to be energetically favorable, leading to a catastrophic collapse followed by a supernova explosion, resulting in either a neutron star or black hole, depending on the remaining mass.
That is a rigid body mode of high mass that has no oscillation.
Remnants of low mass stars include white dwarfs, neutron stars, and black holes, depending on the mass of the original star. White dwarfs are remnants of stars similar in mass to our Sun, while neutron stars and black holes are remnants of more massive stars. These remnants are formed after the star exhausts its nuclear fuel and undergoes a supernova explosion.