<p>Where to begin... </p><p>First, welcome to the boards!!! </p><p> </p><p><strong>"Well, I don't really know a lot about this perticular Subject of black holes."</strong> </p><p>Your local library, google and, of course, these forums are generally good places to start some semblance of understanding, but make sure you're capable of discerning the wheat from the chaff. </p><p><strong>"One thing I do know is that Stephen Hawkings proved that black holes release a partictle at random times. It has to do with Quantum Mechanics."</strong></p><p>Stephen Hawking (no 's') has proposed a theory that emits radiation known, oddly enough, as Hawking Radiation. This theory has not been tested, so it can not be said to be proven true or false. The basic principle behind it involves quantum fluctuations of a vacuum in which virtual particles are allowed to briefly exist, borrowing energy from the system which temporarily violates the 1st law of thermodynamics. Normally, these particle/anti-particle pairs quickly annihilate each other and return the energy of the system to its original state so physicists and cosmologists can relax. </p><p>Near the event horizon of a black hole, however, there may be enough energy to separate the 2 before they annihilate. One particle is ejected and becomes a 'real' particle... the other falls into the black hole. The 1st law of thermodynamics dictate that the energy can not be created or destroyed. Since these particles were a random fluctuation allowed by the Hiesenberg Uncertainty Principle and added energy/mass to the system 'out of nothing', the black hole that absorbed the virtual particle is now forced to compensate for that energy by 'shrinking' for lack of a better term. Since neither particle originated inside the black hole, it doesn't actually lose mass, rather it returns the mass that the vaccuum borrowed.</p><p>To an outside observer, it appears as if that particle was ejected from the black hole. </p><p><strong>"The math behind it is extremely difficult."</strong></p><p>That's an understatement <img src="http://sitelife.space.com/ver1.0/content/scripts/tinymce/plugins/emotions/images/smiley-smile.gif" border="0" alt="Smile" title="Smile" />. </p><p> </p><p><strong>"Also, Humans have created a black hole here on the earth in the Bern Accelerator in France/Belgium. They accelerated two protons as super high speeds."</strong></p><p>No such thing has happened yet at C.E.R.N. CERN is an organization that operates the LHC (Large Hadron Collider). It is theoretically possilble that the accelerator may be able to create enough energy for this to happen, but it remains to be seen. They haven't even turned the behemoth on yet. I believe, last time I checked, the schedule start date to hit the big green button is May 21. No results will be seen for at least a month or so. Apparently it takes a whille to impart enough energy into these particle to make the collisions worthy of the 6 billion they spent building it. </p><p><strong>"The effect was a realase of Gravitons (the gravitational particle) which created a black hole." The black hole then release a proton one trillionth of a second later and the black hole 'dispersed'."</strong></p><p>Gravitons are a hypothetical particle said to be a force carrier similar to the photon. There is zero evidence, physical or observational, to elevate them into a theory and eventual incorporation into the Standard Model of particle physics. They may or may not exist. I don't believe we have the tools yet to detect gravitons should they exist... and we may never. </p><p> </p><p>Hope that helped <img src="http://sitelife.space.com/ver1.0/content/scripts/tinymce/plugins/emotions/images/smiley-wink.gif" border="0" alt="Wink" title="Wink" />. Feel free to snoop around and ask questions. The folks around here are quite helpful. </p><p> </p> <div class="Discussion_UserSignature"> <div> </div><br /><div><span style="color:#0000ff" class="Apple-style-span">"If something's hard to do, then it's not worth doing." - Homer Simpson</span></div> </div>