A nova is created when additional material is accreted onto the hot surface of a white dwarf.
If sufficient material is accreted that pushes the mass of the white dwarf over the Chandrasekhar limit of about 1.38 solar masses a type Ia supernova will occur.
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A star that becomes a white dwarf simply does not have the mass to become a neutron star. White dwarfs are the the remnants of a star very similar to our own sun in mass, where it takes a much more massive star to create a neutron star, Like the star Betelgeuse is a prime example of a star that does not have the mass to become a black hole but is massive enough to become a neutron star.
A planetary nebula is the "out blast" of a star that has died, at the centre of the planetary nebula will the the stellar remnants of the propagator star - a white dwarf.
Both used to be normal stars, but a white dwarf is just a star that ran out of hydrogen,
a neutron star was (is) heavy enough to compress electrons into protons to make neutrons.
As you might guess from the name, white dwarves are much smaller. Also, the stopped producing energy; any light emitted from them is from residual heat.
A white dwarf has a diameter of a few thousand kilometers; a neutron star has a diameter of but 20-30 km.
Can't think of any.
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A red giant is old to middle aged star and a white dwarf is dead star so the relationship is they are both are dead and alive.
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They are both dense stellar remnants.
No. They do not have enough mass to become black holes. Depending on the mass they will either become white dwarfs or neutron stars.
All stars "burn" by the process of nuclear fusion. When fusion has been completed, the star dies. That can occur in several different ways and the interested party could look into the topic of stellar evolution. Neutron stars, black holes and white dwarfs are examples of end stages of stellar evolution. Some stars never really reach the stage of fusion and such large objects are called brown dwarfs. If Jupiter were not a planet, it might be deemed a brown dwarf.
The Dwarfs house is called the Dwarfs small cottage. In Disney's Snow White. There was no name in that cottage. But one author made a name of it 2 years after Disney made the cartoon version. The author named it Dwarfs small cottage because the Dwarfs were in a small cottage in the forest.
Well, they don't affect us directly... But it's interesting to know that most stars - and pressumably that will include our Sun - will end up as a white dwarf, eventually. The exception is the most massive stars, which become neutron stars or black holes.
The duration of Even Dwarfs Started Small is 1.6 hours.
Stars that become white dwarfs die but become black holes . Neutron stars are born from a Super Nova that stored its energy and became a neutron star.
Both white dwarfs and neutron stars are extremely dense remnants of the collapsed cores of dead stars.
Dongsu Kyu has written: 'Neutron stars and white dwarfs in galactic halos?' -- subject(s): White dwarfs, Neutron stars
True.
The smallest stars are called neutron stars.They typically have a diameter of only 12kmthe smallest star is the neutron star from the word "neutron"
Black holes, neutron stars, and the white dwarfs
the simple reson is mass.......that is if the star under consideration is a heavy one, it is more likely to turn into a black hole and if it is comparatively smaller it is prone to turn into a neutron star or a white dwarf
Both white dwarfs and neutron stars match the description. Neutron stars are smaller, hotter, and denser.
Both white dwarfs and neutron stars match the description. Neutron stars are smaller, hotter, and denser.
The difference is in mass. Low to medium mass stars (up to about 8-10 solar masses) become white dwarfs. Massive stars (10 to 25 solar masses) become neutron stars. Stars above 25 solar masses tend to become black holes.
No. Stars such as our sun become white dwarfs. Only stars 8-10 times the mass of the sun or more become neutron stars.
No. Blue stars will generally leave behind neutron stars or black holes.