It's not, really. Trigonometry deals with planes and planar figures, like triangles. The universe doesn't work that way. Black holes curve the space/time continuum, but there are examples all over the actual universe without going into theoretical singularities.
On earth you can map out a triangle with three ninety degree angles, if you wish. Two of the angles would be on the equator, and the third on one of the poles. I realize that the curve of the earth makes this possible, but it underlines the fact that trig is mostly theoretical and only applies to theoretical structuring, or only on very small scales.
Some topics related to black holes:Stellar evolutionPhysicsAstronomyGravityQuantum physics
There are several formulae related to black holes. Please clarify what you want to calculate.There are several formulae related to black holes. Please clarify what you want to calculate.There are several formulae related to black holes. Please clarify what you want to calculate.There are several formulae related to black holes. Please clarify what you want to calculate.
If you believe in God and you believe that God created everything, then sure. If you believe in science, then a black hole is created when a massive star collapses and a black hole is formed. [See related question]
Perhaps you mean stellar black hole. Stellar means related to a star, so that refers to a black hole that results from the collapse of a star. Actually that's the ONLY confirmed way to create a black hole (other ways are a bit hypothetical), but the term is also used to refer to a black hole which has approximately the mass of a star - to distinguish it from the supermassive galactic black holes in the center of most galaxies, as well as the intermediate-mass black holes found in star clusters.
The event horizon of a black hole is directly related to its mass. For a 100 solar mass black hole, the event horizon radius would be about 295 kilometers (183 miles). This is the point of no return beyond which nothing, not even light, can escape the black hole's gravitational pull.
The rotation is not related to the black hole's ability to attract matter. The attraction depends only on the black hole's mass.The rotation is not related to the black hole's ability to attract matter. The attraction depends only on the black hole's mass.The rotation is not related to the black hole's ability to attract matter. The attraction depends only on the black hole's mass.The rotation is not related to the black hole's ability to attract matter. The attraction depends only on the black hole's mass.
Some topics related to black holes:Stellar evolutionPhysicsAstronomyGravityQuantum physics
There is a theory that tells that when you fall in a black hole, you are not destroyed but you are "teleported" to a white hole. The wormhole is a inter-dimensional tunnel that connects a black hole to a white hole.
it is result of a dead star
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Superficially.
If you jumped into an "ordinary" Schwarzschild black hole, you would be crushed into a long line of particles, which means death by a black hole. If you jumped into a Kerr black hole, the same process may occur, but the only thing different is that a Kerr black hole spins, and a Schwarzschild black hole does not. That answer needs a bit more detail. Please use the "related link" below.
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If you mean its force of attraction, that's related to its mass.
because i said they do !
A black hole's size is determined by its mass, which is the amount of matter it contains. The more mass a black hole has, the larger its size. The size of a black hole is typically measured by its event horizon, which is the point of no return where gravity is so strong that not even light can escape. The event horizon's size is directly related to the mass of the black hole.