Thank you bobbym, It was the best! I got many presents, merry cristmass bobbym and soon happy new year!

Basically I believe:

1. The black hole is some kind of substance that when confronted with matter, timelessly converts it into it's own kind of matter. Other then that I believe that in a quantum entanglement, that sorta matter can dissapear from the black hole.

2. Any entanglement that leaves the black hole has still a spin with speed, however in the black hole, its time and length is still zero. A small shard of the black holes baneless matter left it with the entanglement. In some way, the entanglement energy is released outside the black hole, whether the entanglement can go away if one particle is in the black hole is a hard question to answer. basically, as long as time and length is nothing, the speed can be anything, thus the energy is released as soon as the entanglement has re-entangled.

3. I would need your help once again bobbym, I need you to calculate the odds of an entanglement to reach us from any known black hole, sizeably big. I am certain that there is one here, and I have a hard time believing that it's all that far away.

Last edited by LQ (2010-12-28 22:19:23)

Quite alot of photons in space though. I bet a quantum entanglement can get pretty far... In the speed of light.

I reccon it has a high truthvalue though. The question is only: how do we explain it with logic?

I would explain it with some sorta entropy photon (I've heard of it). Allthough... perhaps if a photon is a pulse wave, maybe an entropy photon could be explained as more of a longitudal wave? Like a distortion in time space?

Last edited by LQ (2010-12-28 22:54:33)

Easy to say, if we just had some figures... Imagine that the nearest star except the sun shines with a light that is proportional with 1/r^2 and solar emition, yet only x% of that reaches us. It is safe to say that over the black holes lifetime, an object y times further away has emitted solar energy with the small change of also passing a black hole while the twin escapes. let's say 30% escapes, but we don't see any black holes near suns nearby, so let's guess that the black hole is at a big radius from the star in question. A lonely black hole in space. and the energy in free space around a black hole is 3-4 kelvin perhaps? Doesn't sound far, yet I wouldn't know, quite.

The one in the large Magellanic cloud? That one was about 180 000 light years away.

Hi LQ;

I think you are getting a little confused by the phraseology. A quantum entanglement is not an object. Nothing restricts it as far distance or time is concerned as far as I know. At the quantum level, relativity and classical mechanics do not hold. Down there, time and space have no meaning.

entanglement is an observer-dependent quantity in non-inertial frames...