As stars burn, they shed matter, becoming less massive slowly throughout their life cycle. This reduction in mass necessarily lessens their gravity, causing the stars' diameter to increase. So, many end-stage stars will be huge and bloated. Massive red giant stars are examples of this.
The mass of a star determines its fate in the end stages of its life. Higher-mass stars will undergo a more violent explosion called a supernova, leaving behind a dense core known as a neutron star or black hole. Lower-mass stars will shed their outer layers, forming a planetary nebula, and eventually cool down to become a white dwarf.
Ultimately the mass a star has at the end of its life depends on its initial mass. This mass determines what stages a star will go through in its death throws.
As stars approach the end of their life cycles, they undergo several stages depending on their mass. For low to medium-mass stars, like our Sun, they expand into red giants, shedding outer layers to form planetary nebulas, with the core remaining as a white dwarf. Massive stars, however, experience a more violent end, going supernova and leaving behind either a neutron star or a black hole. Throughout these stages, nuclear fusion processes change, leading to the formation of heavier elements.
The end life of a planetary nebula is typically associated with low mass stars. These stars eventually shed their outer layers to create a planetary nebula as they transition to the white dwarf stage of their evolution. High mass stars, on the other hand, end their lives in supernova explosions.
Massive stars become neutron stars, or black holes (depending on how much mass is left at the end of a star's lifetime).
The mass of a star determines its fate in the end stages of its life. Higher-mass stars will undergo a more violent explosion called a supernova, leaving behind a dense core known as a neutron star or black hole. Lower-mass stars will shed their outer layers, forming a planetary nebula, and eventually cool down to become a white dwarf.
The mass could either be a red giant or a super giant, they both evolve into different ways, after a star runs out of fuel, it becomes a white dwarf, a neutron star, or a black hole.
The mass could either be a red giant or a super giant, they both evolve into different ways, after a star runs out of fuel, it becomes a white dwarf, a neutron star, or a black hole.
Ultimately the mass a star has at the end of its life depends on its initial mass. This mass determines what stages a star will go through in its death throws.
As stars approach the end of their life cycles, they undergo several stages depending on their mass. For low to medium-mass stars, like our Sun, they expand into red giants, shedding outer layers to form planetary nebulas, with the core remaining as a white dwarf. Massive stars, however, experience a more violent end, going supernova and leaving behind either a neutron star or a black hole. Throughout these stages, nuclear fusion processes change, leading to the formation of heavier elements.
All stars, regardless of their mass, undergo several common stages in their life cycle: they begin as a molecular cloud of gas and dust, then form a protostar as gravity causes the material to collapse. Once nuclear fusion ignites in the core, they enter the main sequence phase, where they spend the majority of their lives fusing hydrogen into helium. Eventually, they evolve into later stages such as red giants or supergiants, and finally end their lives as white dwarfs, neutron stars, or black holes, depending on their initial mass.
When a star is at the end of its lifetime its mass increases.
Exactly what happens depends on the mass of the star. Low mass stars first expand into giants, then shrink to white dwarfs. Stars with a little more mass than the Sun end up as neutron stars; stars with considerably more mass with the sun end up as black holes.
When a star is at the end of its lifetime its mass increases.
Low and medium sized stars will end up as white dwarfs.
The mass could either be a red giant or a super giant, they both evolve into different ways, after a star runs out of fuel, it becomes a white dwarf, a neutron star, or a black hole.
No, low mass stars do not become neutron stars. Low mass stars like the Sun end their lives as white dwarfs. Medium mass stars can evolve into neutron stars, but they must first go through the supernova stage to shed their outer layers and leave behind a dense core of neutrons.