The starting nebula of a medium star cycle and a large star cycle differs primarily in mass and density. Medium stars, like our Sun, typically form from nebulae that have a lower mass and are less dense, allowing for a more gradual accumulation of material. In contrast, large stars originate from more massive and denser nebulae, which can lead to a faster and more violent formation process. This difference in initial conditions influences their subsequent life cycles and eventual fates.
A planetary nebula is created when a low- to medium-mass star reaches the end of its life cycle and sheds its outer layers of gas into space. This process exposes the hot core of the star, which emits ultraviolet radiation that causes the surrounding gas to glow and form a colorful nebula.
The life cycle of all stars is pretty similar from birth to late in their life - that's when the rest of their life cycle can vary dramatically. Small and medium-sized stars tend to be the longest-lived stars (our Sun is a typical example), and they end their life by expanding, cooling, and then blowing off their outer shell while their nucleus collapses to a "White Dwarf".
A nebula contains stars and other matter; a supernova is just a large enough nova, or star that explodes at the end of its life cycle due to spent fuel
No, the Sun will not become a supernova. It is a medium-sized star and will end its life cycle as a red giant before shedding its outer layers to form a planetary nebula, leaving behind a white dwarf. Supernovae typically occur in much larger stars that can undergo gravitational collapse. Thus, the Sun's fate will be quite different from that of a supernova.
most likely Beteleuse will become a neutron star after the nebula that it will create dies away.
A planetary nebula is created when a low- to medium-mass star reaches the end of its life cycle and sheds its outer layers of gas into space. This process exposes the hot core of the star, which emits ultraviolet radiation that causes the surrounding gas to glow and form a colorful nebula.
In the nebula!
stellar nebula
None at all/ The life cycle of a star is based on it's initial mass, not where it was formed.
The life cycle of all stars is pretty similar from birth to late in their life - that's when the rest of their life cycle can vary dramatically. Small and medium-sized stars tend to be the longest-lived stars (our Sun is a typical example), and they end their life by expanding, cooling, and then blowing off their outer shell while their nucleus collapses to a "White Dwarf".
Stellar Nebula - Average Star- Red Giant - Planetary Nebula - White Dwarf Stellar Nebula - Massive Star - Red Super Giant - Super Nova- Neutron Star Stellar Nebula - Massive star - Red Super Giant -Super Nova - Black Hole
A nebula contains stars and other matter; a supernova is just a large enough nova, or star that explodes at the end of its life cycle due to spent fuel
No, the Sun will not become a supernova. It is a medium-sized star and will end its life cycle as a red giant before shedding its outer layers to form a planetary nebula, leaving behind a white dwarf. Supernovae typically occur in much larger stars that can undergo gravitational collapse. Thus, the Sun's fate will be quite different from that of a supernova.
Nebulas are interstellar clouds made of dust and gases and a pulsar is a kind of star. A pulsar is formed inside of a nebula, therefore a scientist could conclude that without a nebula a pulsar could not exist.
The gas surrounding a star at the end of its life cycle is called a "nebula." This nebula is composed of gas and dust that can eventually condense under gravity to form new stars. The process of star formation from a nebula involves the collapse of these materials, leading to the birth of new stars and planetary systems.
middle aged, in the center of its 10 billion year life cycle, as with ashes to ashes, dust to dust, nebula to nebula, musted gases to musted gases.
A star's life cycle starts from a nebula. For giant stars, the star turns into a huge star to a super red giant to a supernova to a black hole. A sun-like star turns to a red giant, then a planetary nebula, a white dwarf, and then a black dwarf.