theobvious
Moment of Truth
Originally posted by dvampire
Indeed! 🙂 😄 😆Here's Superman holding a black hole in the palm of his hand too. Which also prove that hes far stronger than any DBZ/GT character.
http://img32.imageshack.us/img32/3199/supermanblackhole0016uk.jpg
Should you be unfortunate enough (and foolish enough) to be sucked into a black hole your demise would be nearly instantaneous in your reference frame. You would first be pulled apart by intense tidal forces because the force on your feet would be much stronger than that on your head. Then you would be crushed into infinite density as you become part of the singularity at the center of the black hole.
Things would appear very different to a distant observer due to the General Relativistic effects described above. Time, as measured far away, would appear to get slower and slower as you approach the gravitational radius - the distant observer would be denied the thrill of actually seeing you disappear into the black hole because time "stops" at the gravitational radius. Any signals that you send would be redshifted by increasing amounts as you near the black hole.
Gravitational Time Dilation: Time slows down in a strong gravitational field. Newton's concept of time was an absolute quantity flowing uniformly through the Universe. Einstein showed that the measurement of time is relative, depending on the reference frame of the person who is making the measurement. The Special Theory demonstrated that timekeepers in motion with respect for each other will measure different times for events in each others reference frames: a timekeeper "at rest" will find that an event occurring in a rapidly moving reference frame will take a longer time than a timekeeper moving along with the event. A famous example of Special Relativistic Time Dilation is the Twin Paradox:
Twins Bill and Jill, born within minutes of each other, take differing career paths. Jill becomes an astronaut and Bill becomes a ground-based astronomer. On their 21st birthday Jill sets out on a space mission to Aldebaran, 32 light years away. Travelling at 99.5% of the speed of light, Jill measures a time of 3.2 years for her trip to Aldebaran and another 3.2 years for her return. (Incideltally, while she is travelling near the speed of light she also sees the distance to Aldebaran contracted to a mere 3.2 light years.) Bill finds that it takes her 32 years and 2 months for each leg. Upon Jill's return, she is 27 while her sibling is 85! Bizarre as these effects appear to us slow moving mortals, relativistic time dilation has been repeatedly confirmed in high energy particle accelerators, where particles travel near the speed of light, and by atomic clock on supersonic aircraft.
