Sometimes. It depends on the precise conditions. The mass of the star (after blowing off its outer layers in the supernova) has to be at least 1.5 - 3 times the mass of the Sun in order for it to collapse into a black hole.
The remnants of a smaller star (but still larger than the sun; the sun is too small to become a supernova) will probably stop collapsing after the supernova at the neutron star stage.
No, only small ones, the supermassive ones are at the centre of galaxies.
To avoid the harmful radiation from supernovas and the effects of black holes, one must be located at a safe distance from these cosmic events. Supernovas release intense bursts of radiation and energetic particles, while black holes exert strong gravitational forces that can affect nearby objects. Additionally, shielding materials, such as lead or water, can help protect against radiation exposure. Ultimately, being in a stable, well-shielded environment far from such phenomena is key to safety.
Probably stellar mass black holes
Hawking radiation is a form of energy that is theorized to be emitted by black holes. It is named after physicist Stephen Hawking, who proposed its existence due to quantum effects near a black hole's event horizon.
In an indirect way, yes. Gama rays are the highest-intensity form of electromagnetic energy. They usually indicate a very power energy source. Most black holes are formed by exploding stars called supernovas. These events can be detected as gamma ray bursts.
no because black holes can only form through supernovas.
Black holes
Supernova happens when a star that is at least 3 times larger than our sun dies, it will be crush by its own gravity. Then boom, supernova. Then the star acts like a sponge, it will get bigger. That star is not a star anymore, it is a black hole.
No, only small ones, the supermassive ones are at the centre of galaxies.
To avoid the harmful radiation from supernovas and the effects of black holes, one must be located at a safe distance from these cosmic events. Supernovas release intense bursts of radiation and energetic particles, while black holes exert strong gravitational forces that can affect nearby objects. Additionally, shielding materials, such as lead or water, can help protect against radiation exposure. Ultimately, being in a stable, well-shielded environment far from such phenomena is key to safety.
A supernova can become a neutron star, or a black hole. Whether it becomes one or the other depends on the mass that remains after the supernova explosion (remember, part of the matter is blown into space). The more massive objects become black holes. As to the "why", this is because after a certain mass limit, there is no known force that can stop gravity.
Joan Marie Galat has written: 'Black holes and supernovas' -- subject(s): Black holes (Astronomy), Juvenile literature, Supernovae 'Best of Alberta' -- subject(s): Guidebooks, Guides
Probably stellar mass black holes
The black holes from Gamma ray usually burst because of their energetic form.
Black holes are sort of the final stage of stellar evolution; they don't form much else. Two black holes may merge to form a larger one, and after a very, very long time, they will evaporate.
Most black holes form when massive stars exhaust their fuel and their cores collapse. There are also supermassive black holes at the centers of most galaxies. Scientists are not sure how supermassive black holes form.
Most black holes are believed to form when very massive stars die.