Want this question answered?
When the gravity of a neutron star overcomes the degeneracy pressure of the neutrons, the neutron star collapses into a black hole.
The death stage. It explodes and either collapses into a neutron star or collapses even more into a black hole in space.
Neutron Star. It collapses and splits its atoms apart. It's composed of only neutrons.
A neutron star is what is left of the core of a massive star after it dies. The core collapses under the force of gravity, crushing itself from a size far larger than Earth to about the size of a city but still with a mass up to 3 times that of the sun. If it is any more massive it becomes a black hole.
A neutron star
after a neutron star collapses on itself
There's no mass range that's between "collapses into a neutron star or pulsar" and "collapses into a black hole". It'll be one or the other.
Protostar, Main Sequence, Red Giant, Super Nova, and the Neutron Star.
When the gravity of a neutron star overcomes the degeneracy pressure of the neutrons, the neutron star collapses into a black hole.
Depending on the size of the star: a neutron star or a black hole-
The death stage. It explodes and either collapses into a neutron star or collapses even more into a black hole in space.
Neutron Star. It collapses and splits its atoms apart. It's composed of only neutrons.
A neutron star is what is left of the core of a massive star after it dies. The core collapses under the force of gravity, crushing itself from a size far larger than Earth to about the size of a city but still with a mass up to 3 times that of the sun. If it is any more massive it becomes a black hole.
Nebulae (gas and dust) protostar (formed by immense pressure in nebulae) ^ becomes either a Brown dwarf (basicall dead :P) or a Main sequence star which becomes: A Red giant (when MSS runs out f hydrogen ) if red giant is small it becomes a white dwarf and does nothing or a planetary nebulae if it's a big one it either becomes a Neutron star or a Black hole
A neutron star.neutron star
Supposedly one of the down quarks of the neutron becomes an up; thus the neutron becomes a proton and an electron (and a neutrino) are emitted.
When a nebula slowly collapses, a ball of un-ignited hydrogen called protostar forms. As the protostar shrinks smaller, nuclear fusion starts, and the protostar became a main-sequence star; if the protostar is too small, it would become a brown dwarf and slowly cool down. After burning or millions or billions of years, the main-sequence star would evolve differently based on their sizes. Red dwarfs would become a white dwarf, then slowly cool down. Medium-sized stars (such as our Sun) would expand into a red giant, blow off its outer layers, and leave a core behind; the shell becomes planetary nebula, and the core becomes a white dwarf, the white dwarf would then cool down into a black dwarf. If a star is more than 8 times the mass of the Sun, it would expand into a supergiant, then it explodes as supernova. After the supernova, the outer shell would become a nebula, and the core would evolve into either a neutron star or a black hole.