If you fell into a black hole accourding to einstein

#If you fell into a black hole accourding to einstein how to

And if you're really interested, you can devote your career to studying the physics that Einstein dealt with. Do some of your own research on the subject and youвЂ™ll be occupied for as long as youвЂ™re interested. Many more effects have their theoretical underpinnings in general relativity.

But EinsteinвЂ™s prediction would show itself in reality by the end of the century. Einstein predicted that an object near a rotating body would get pulled out of shape 80 years before the effect was actually observed вЂ“ the effect is so subtle that science wasnвЂ™t able to see it directly at the time.

#If you fell into a black hole accourding to einstein how to

What happens to the object once inside a black hole? Who knows? The mathematical equation used to calculate these events comes up with an imaginary number in this situation, and no one knows how to represent this imaginary number in real life.Д«lack holes offered researchers evidence of another effect of general relativity: frame dragging, or the twisting of space-time by a rotating object. This is why, if you were to watch something fall into a black hole, that object would appear to freeze at the black holeвЂ™s edge. At the edge of a black hole вЂ“ where gravity is so dense that it has nothing escapes dropping into the pit thatвЂ™s been made вЂ“ time stops. One of these is gravitational time dilation, or the phenomenon that time is slower for objects in stronger gravitational fields вЂ“ if youвЂ™re in a place where gravity is strong (on a very large planet, for example), time moves more slowly for you than it would if you were out in space. There are some mind-bending results from this. Put another way, if an asteroid appears to be pulled towards the earth, itвЂ™s actually because of the way space-time is curved around earth, and not because of some force that the earth is extending into space. So quite basically, the general theory of relativity holds that gravity вЂ“ which seems to be a force pulling us toward the earth according to our weight вЂ“ is actually a result of the curvature of space-time. Einstein concluded that because gravity affects everything the same way, it must be a result of something happening in space-time which doesnвЂ™t depend on the objects itвЂ™s affecting. The person who released the ball wouldnвЂ™t see the ball drop, but would see the ball right next to him or her as they both fell (similar to how a feather and a bowling ball fall together when there's no air in the room). I promised a second part, and here it is вЂ“ a look at the strange consequences of the general theory of relativity.Д®instein reportedly got the inspiration for his general theory of relativity by imagining what it would be like to release a ball while falling off the side of a building. In November, I wrote the first of my entries on great academic Albert Einstein. Paul Walorski, B.A.What is gravity? Have you ever really thought about it?

Matter falling toward the even horizon would appear to become redder and dimmer, but would not appear to ever completely fall into the hole.Д®ven as the Universe ages infinitely for us, however, an observer surviving the fall into a black hole would experience a 'normal' passage of time. That is why black holes have also been referred to as 'frozen stars'. Time dilation near a black hole, with its extreme gravitational field, is intensified until time at the event horizon appears to be stopped completely. Because gravity weakens as distance from the Earth's center increases, the readings of extremely accurate atomic clocks that are synchronized at sea level diverge if one is raised to the top of the structure. This has been verified on Earth by accurately measuring the passage of time at the top and bottom of a tall building. The stronger the gravitational field, the greater the time dilation effect. Does time pass faster or slower close to the black hole?ДЄccording to Einstein's General Theory of Relativity, time passes more slowly (as seen byДЄn outside observer) in a gravitational field.