Yes, if the star is massive enough when the core collapses a supernova explosion happens.
When the core of a super giant collapses, it can trigger a supernova explosion. The intense heat and pressure leads to the fusion of heavier elements and the release of a tremendous amount of energy, resulting in a massive explosion that can outshine entire galaxies for a short period of time. This explosion also disperses newly formed elements and enriches the surrounding space, playing a key role in the creation of new stars and planets.
When a star's core collapses and a giant explosion occurs, it is called a supernova. This explosive event releases an immense amount of energy and can outshine entire galaxies for a brief period of time.
Neutronium, hyper-dense atomic nuclear material stripped of all electrons.
Stars that are too massive to form neutron stars can undergo a supernova explosion and collapse into a black hole. This process occurs when the core of the star collapses under its own gravity, creating a region with infinite density and strong gravitational pull from which not even light can escape.
When stars collide, the explosion can vary in size depending on the size and nature of the stars involved. It can result in massive explosions known as supernovae, which can release immense amounts of energy and matter into space, impacting their surroundings and creating new elements.
When the core of a super giant collapses, it can trigger a supernova explosion. The intense heat and pressure leads to the fusion of heavier elements and the release of a tremendous amount of energy, resulting in a massive explosion that can outshine entire galaxies for a short period of time. This explosion also disperses newly formed elements and enriches the surrounding space, playing a key role in the creation of new stars and planets.
When a star's core collapses and a giant explosion occurs, it is called a supernova. This explosive event releases an immense amount of energy and can outshine entire galaxies for a brief period of time.
Neutronium, hyper-dense atomic nuclear material stripped of all electrons.
That will happen to stars that are very massive.
The final stage in the evolution of the most massive stars is a supernova explosion, where the star collapses and then rebounds in a powerful explosion. This explosion can lead to the formation of either a neutron star or a black hole, depending on the mass of the collapsing core.
Smaller stars like our own expand into a red giant and then eventually collapse into a white dwarf, the more larger stars like a bright giant star expand into a hyper giant or a super giant. Super giant stars can go supernova and collapse into a neutron star, a white dwarf, or a black hole. The hyper giant stars go hypernova and make a gamma ray that eventually ends into a black hole.
Neutron stars are formed when a massive star runs out of fuel and collapses under its own gravity during a supernova explosion. The key processes involved in their creation include the core collapse of the star, the expulsion of outer layers in a supernova explosion, and the compression of the core into a dense ball of neutrons.
The collapses star gets squeezed by collapses gas and turns into a black hole.
Stars form from an accumulation of gas and dust, which collapses due to gravity and starts to form stars.
Stars that are too massive to form neutron stars can undergo a supernova explosion and collapse into a black hole. This process occurs when the core of the star collapses under its own gravity, creating a region with infinite density and strong gravitational pull from which not even light can escape.
When stars collide, the explosion can vary in size depending on the size and nature of the stars involved. It can result in massive explosions known as supernovae, which can release immense amounts of energy and matter into space, impacting their surroundings and creating new elements.
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