The lowest energy release in a supernova is about 1.5E44 Joules, the highest energy release in a nuclear explosion (i.e. the Soviet Tsar Bomba of 1961) was about 2.17E17 joules (although significantly larger yields are possible, nobody has seen any reason to build one).
This is 27 orders of magnitude between the smallest supernova and the largest nuclear explosion that was ever done!!!
The lowest energy release in a supernova is about 1.5E44 Joules, the highest energy release in a nuclear explosion (i.e. the Soviet Tsar Bomba of 1961) was about 2.17E17 joules (although significantly larger yields are possible, nobody has seen any reason to build one).This is 27 orders of magnitude between the smallest supernova and the largest nuclear explosion that was ever done!!!
The range of masses for a supernova typically falls between about 8 to 50 times the mass of the sun. When a star that massive runs out of nuclear fuel, it undergoes a catastrophic collapse resulting in a supernova explosion. Smaller stars may end their lives in a different type of explosion called a nova.
Compared to a supernova, a nuclear bomb would be like a puff of breath in a hurricane. Even a SMALL star is the equivalent of millions of hydrogen bombs PER SECOND, and a supernova is billions of times more powerful. However, a nuclear explosion IS like one grain of sand out of the center of a star; with a temperature of millions of degrees for a tiny fraction of a second.
Yes, a star with a mass 10 times greater than the sun can produce a supernova. When massive stars exhaust their nuclear fuel, they undergo a catastrophic explosion called a supernova, leading to the collapse of the star's core and the ejection of its outer layers into space.
It depends. With current theoretical knowledge, a star of this mass has two possible outcomes. 1) It erupts in a cataclysmic explosion as a supernova and then forms into a black hole or 2) If the mass is high enough, currently believed to be around 50 solar masses, it will form directly into a black hole without the supernova.
The lowest energy release in a supernova is about 1.5E44 Joules, the highest energy release in a nuclear explosion (i.e. the Soviet Tsar Bomba of 1961) was about 2.17E17 joules (although significantly larger yields are possible, nobody has seen any reason to build one).This is 27 orders of magnitude between the smallest supernova and the largest nuclear explosion that was ever done!!!
The range of masses for a supernova typically falls between about 8 to 50 times the mass of the sun. When a star that massive runs out of nuclear fuel, it undergoes a catastrophic collapse resulting in a supernova explosion. Smaller stars may end their lives in a different type of explosion called a nova.
A supernova.
Such a star will first have a supernova explosion, due to instability in the nucleus. Then it will most likely turn into a black hole.
Compared to a supernova, a nuclear bomb would be like a puff of breath in a hurricane. Even a SMALL star is the equivalent of millions of hydrogen bombs PER SECOND, and a supernova is billions of times more powerful. However, a nuclear explosion IS like one grain of sand out of the center of a star; with a temperature of millions of degrees for a tiny fraction of a second.
Yes, a star with a mass 10 times greater than the sun can produce a supernova. When massive stars exhaust their nuclear fuel, they undergo a catastrophic explosion called a supernova, leading to the collapse of the star's core and the ejection of its outer layers into space.
A nova or supernova.
It depends. With current theoretical knowledge, a star of this mass has two possible outcomes. 1) It erupts in a cataclysmic explosion as a supernova and then forms into a black hole or 2) If the mass is high enough, currently believed to be around 50 solar masses, it will form directly into a black hole without the supernova.
A Supernova. See related question
There is no way of knowing which star will next go "supernova".However, closer to home, Betelgeuse is the most likely to produce a supernova - within humanities lifetime.
It depends on the mass of the star. When massive stars die the result is usually an enormous explosion called a supernova, but the core will collapse to form a dense remnant. If the remnant is less than 3 times the mass of the sun then it will form a neutron star. If it is greater than 3 times the mass of the sun it will form a black hole. Extremely massive stars may collapse directly into a black hole with no supernova.
The stage missing in the chart is the supernova explosion. When a star ten times more massive than the sun reaches the end of its life cycle, it undergoes a supernova explosion, where the star's core collapses and then rebounds outward in a powerful explosion, leaving behind either a neutron star or a black hole.