Examples of using Einstein's general theory of relativity in English and their translations into Hungarian
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Einstein's General Theory of Relativity& Quantum physics.
The first lesson is dedicated to Albert Einstein's general theory of relativity,‘the most beautiful of theories'.
Einstein's general theory of relativity predicted a slightly different motion from Newton's theory. .
It is a perfect environment in which to test gravitational physics,and particularly Einstein's general theory of relativity.
According to Einstein's General Theory of Relativity, space itself would expand along with the fireball.
That will enable them to determine whether the motion of thestars around the black hole follows thepredictions of Einstein's general theory of relativity- or not.
Experts fear that Albert Einstein's general theory of relativity may not be entirely correct.
These equations specify how the geometry of space and time is influenced by whatever matter is present,and form the core of Einstein's general theory of relativity.[2].
Predicted by Einstein's general theory of relativity, wormholes are tunnels connecting two points in space-time.
These equations specify how the geometry of space and time is influenced by whatever matter and radiation are present,and form the core of Einstein's general theory of relativity.[3].
McKay: Well, according to Einstein's General Theory of Relativity, there's nothing in the laws of physics to prevent it.
This extreme environment- the strongest gravitational field in our galaxy- makes itthe perfect place to test gravitational physics, particularly Einstein's general theory of relativity.
Einstein's general theory of relativity forbids dispersion from happening in gravitational waves as they propagate from their source to Earth.
The current best theory regarding gravity goes all the way back to Einstein's general theory of relativity, but there has been no way to reconcile it with quantum mechanics.
Einstein's general theory of relativity seems to offer the possibility that we could warp space-time so much that we could travel back in time.
This extreme environment- the strongest gravitational field in our galaxy- makes it the perfectplace to explore gravitational physics, and particularly to test Einstein's general theory of relativity.
For almost one hundred years, Einstein's general theory of relativity has precisely predicted the outcome of every experiment made to test it.
Since the 1970s, fundamental particle physics has provided insights into early universe cosmology,particularly the Big Bang theory proposed as a consequence of Einstein's general theory of relativity.
We also now know that Einstein's general theory of relativity does not allow the universe to bounce from a contracting phase to the present expansion.
As experimental and theoretical evidence mounted, it became more and more clear that the universe must have had a beginning in time, until in 1970this was finally proved by Penrose and myself, on the basis of Einstein's general theory of relativity.
Roger Penrose and I showed that Einstein's general theory of relativity implied that the universe must have a beginning and, possibly, an end.".
At its closest approach, which occurred most recently in May 2018, the star is traveling at nearly 3% of the speed of light and is an ideal test object for studying very strong gravitational fields andtesting Einstein's general theory of relativity.
According to Einstein's general theory of relativity, the Big Bang represents The Beginning, the grand event at which not only matter but space-time itself was born.
Although the position and mass of the black hole have been known since 2002, by making precision measurements of the motions of stars orbiting it, GRAVITY will allow astronomers to probe the gravitational field around the black hole in unprecedented detail,providing a unique test of Einstein's general theory of relativity.
Some experts fear that even Albert Einstein's general theory of relativity, which describes the gravitational pull of matter through a curvature of space, may not be entirely correct.
Albert Einstein's General Theory of Relativity, completed in 1915, predicted that light from a distant star passing near the sun would be bent by the sun's gravity, altering the apparent star's position in the sky.
Time travel used tobe thought of as just science fiction, but Einstein's general theory of relativity allows for the possibility that we could warp space-time so much that you could go off in a rocket and return before you set out.".
Although Einstein's general theory of relativity unified time and space as space-time and involved a certain mixing of space and time, time was still different from space, and either had a beginning and an end or else went on forever.
One of the most important consequences of Einstein's general theory of relativity was the discovery that the universe began as a rapid expansion of space and time 13.8 billion years ago, the Big Bang.
Einstein's general theory of relativity reproduces special relativity when gravity is absent, and it makes almost the same predictions as Newton's theory of gravity in the weak-gravity environment of our solar system-but not quite.