black holes lead no where so don't try it they just stretch you out like a noodle several times till you are just made up as atoms
While they may be called 'black holes', they are not holes. A black hole is a single point, a singularity, with a gravitational pull so strong that not even light can escape. As such, there is nothing to go 'through', once you cross the event horizon, all paths lead to the singularity, any ship entering will eventually be stretched and torn apart by gravitational forces.
Karl did not "discover" a black hole -- he simply showed, on purely mathematical grounds, that Einstein's equations for general relativity could lead to a mass density singularity from which light itself could not escape. He did so in 1915 while, incredible as it may sound, as a World War I soldier on the Russian front.
Here's the deal about black holes: nothing that goes in can ever get out. So, if a space shuttle was sucked into a black hole, it would not be able to get out. The rarely happens because the people have screens and tools that help them find where the black holes are. Not even light can go through a black hole. Something no one knows is where black holes lead to.
It is unknown if the singularity of a black hole has an outlet, either in this universe or another. However, the curvature of spacetime caused by a black hole could indeed manifest as an "exit" somewhere outside normal space. (Black holes have been theorized to radiate Hawking radiation and "evaporate", but stellar-scale holes would take a very long time to dissipate in this manner, even if they ceased collecting mass.)
Neutron stars have been overtaken by black holes, particularly in the context of astrophysical research and observations. As massive stars evolve, they can collapse into neutron stars, but if they accumulate enough mass, they can further collapse into black holes. Additionally, the discovery of gravitational waves has revealed neutron star mergers, which can also lead to the formation of black holes.
It is unknown if the singularity of a black hole has an outlet, either in this universe or another. However, the curvature of spacetime caused by a black hole could indeed manifest as an "exit" somewhere outside normal space. (Black holes have been theorized to radiate Hawking radiation and "evaporate", but stellar-scale holes would take a very long time to dissipate in this manner, even if they ceased collecting mass.)
While they may be called 'black holes', they are not holes. A black hole is a single point, a singularity, with a gravitational pull so strong that not even light can escape. As such, there is nothing to go 'through', once you cross the event horizon, all paths lead to the singularity, any ship entering will eventually be stretched and torn apart by gravitational forces.
Karl did not "discover" a black hole -- he simply showed, on purely mathematical grounds, that Einstein's equations for general relativity could lead to a mass density singularity from which light itself could not escape. He did so in 1915 while, incredible as it may sound, as a World War I soldier on the Russian front.
Yes, I think so. Everything must lead somewhere.
A black hole is the location of a singularity, it doesn't lead to anywhere. This means that if you fall into a black hole (assuming that you can stay alive) you'll just be stuck inside that hole forever--never able to get out.
The ending first: We don't know. Please re-read that. OK, what are the conjectures? A Black hole leads to another, somewhat parallel universe. A Black Hole leads "nowhere". A Black Hole leads to a different type of singularity. A Black Hole leads eventually to another "Big Bang" in another dimension. A black hole leads to a parking lot in Gelsinkirchen, Germany. There are many more. Please re-read the first sentence.
Black holes do not explode in the traditional sense. However, they can release energy through processes like Hawking radiation. If a black hole were to suddenly lose mass and energy rapidly, it could lead to a powerful burst of radiation and particles, potentially causing damage to anything nearby.
If all clocks stopped working, then we would have to be travelling at the speed of light. Which means we would also have infinite density - so we would be a black hole. If we were a black hole, we would all be crushed to the size of a singularity. If we were a singularity, no information could exit that singularity, so this question would not exist.
Black Hole is one of the biggest mystery in Physics, there are so many questions that still has no answer.1. What is inside the black hole?2. What comes first, Black Hole or the Big Bang?3. Where does the Black hole lead to?4. Are there any force greater than the Black Hole?And there are still many more!!Answer #2: Really the only big question is what happens to everything that goes in. More specifically, is it destroyed, which is a violation of the law conservation of energy or is it preserved? Stephen Hawking recently announced some major revision to his black hole theory to solve the informational paradox (http://arxiv.org/abs/1401.5761). He postulates that a black hole's event horizon is only apparent, in that everything that gets trapped inside is eventually and slowly released as radiation through quantum tunneling (Hawking radiation), which in turn reduces the mass of the black hole.In reply to answer #1. A black hole (Gravitational singularity) is not the same as the Big Bang. That is called an initial singularity. They are the same in that they are both extremely small (Hence singularity) but how they arise is different. Where a black hole leads to is inside the black hole, you become part of its singularity, gravity crushes you into it. Black holes are not a force. They are just extreme concentrations of gravity caused by, well, extremely concentrations of mass (Black holes are created when gravitational collapse exeeds quantum degneracy pressures (Outward pressure from squeezing fermions together. Specifically, no two identical fermions can exist in the same energy state) as a stellar remnant). But yes, it is the strongest force as far as its use of gravity. On #3 I believe you are mixing up black holes and gravitational wormholes. Quantum tunneling arising from quantum entanglement of two particles is an example of gravitational wormholes.
Nobody exactly know what is in black holes. But some scientist think they might lead to other unerverses unknown to us.(kinda like the mass relay in mass effect the game)
Here's the deal about black holes: nothing that goes in can ever get out. So, if a space shuttle was sucked into a black hole, it would not be able to get out. The rarely happens because the people have screens and tools that help them find where the black holes are. Not even light can go through a black hole. Something no one knows is where black holes lead to.
It is unknown if the singularity of a black hole has an outlet, either in this universe or another. However, the curvature of spacetime caused by a black hole could indeed manifest as an "exit" somewhere outside normal space. (Black holes have been theorized to radiate Hawking radiation and "evaporate", but stellar-scale holes would take a very long time to dissipate in this manner, even if they ceased collecting mass.)