The only thing that separates you from the nearest black hole that can absorb your body and erase you from existence down to the atomic level is a thin layer of vacuum only a scant 27,000 light years thick.
I think a black hole can rip your molecules into individual atoms.
IIRC the atoms get crushed further, the gravity overcoming the strong nuclear force between the atomic components and they all get mushed into neutronium. Atleast, that's what neutron stars are made of, we can't observe what a black hole is made of, but I'd imagine it's something similar.
/bracingmyselftogetcorrected
A black hole is not made of anything. It's an infinitely dense, infinitely small point, surrounded by an event horizon, a sphere from which not even light can escape (hence why it's black). Basically what happens if you crush neutronium too hard.
However, the time dilation makes exactly specifying what's in a black hole
now a bit more complex than that. Technically, the infinitely dense point never exists relative to our outside reality due to infinite time dilation at the event horizon. Black holes are always about to collapse.
You can't say a black hole "is" an "infinitely dense, infinitely small point", it just will be, after an infinite amount of time has passed.
At the event horizon of a black hole, this deformation becomes so strong that there are no paths that lead away from the black hole. ... Due to this effect, known as gravitational time dilation, an object falling into a black hole appears to slow as it approaches the event horizon, taking an infinite time to reach it.
So, we have a bit of a problem here, because relativity also says that from an external perspective it takes infinity time to reach the event horizon. Additionally, the schwarzchild radius for a set mass is linearly proportional to that mass: that means that volume increases as the cube of the mass. You can then reverse engineer the numbers: given
any density of matter, including the known universe's density you can work out the maximum possible size of the universe. Because, if it was any bigger than that, it would have enough combined gravitational force to form an event horizon around that space.
What this suggests: the fact that bigger black holes are less dense, and that infalling matter takes infinity time to pass through the even horizon suggests that black holes don't actually grow because matter
fell in because that would be a paradox (matter takes infinity time to actually fall in). No, what actually happens is that as matter gets
close enough to the event horizon, then the location of the event horizon moves outwards. Because larger black holes are less dense than smaller ones, just moving enough matter
near the event horizon is enough to cause the event horizon to move outwards.