Einstein's theory is tested by scientists in space. The word of God comes

First let's say what we all know. Albert Einstein [Einstein] was one of the wisest and most influential scientific minds in history, with many remarkable predictions. These predictions were tested in the real world, and they were always proven.

Of course, in science, you're as good as the latest scientific estimate, and that means that scientists are constantly finding new forms to test Einstein's ideas. Astronomers have recently made a new and creative measurement of his theory of relativity, translated Periscope.

Einstein's theory of relativity, which he developed for several years, makes shocking predictions: that moving hours walk slower than those that sit in one place and that troops are shorter than the faster they move. When he added gravity to his thinking, he reduced clocks to moving slower when they are in high - gravity regions. He also predicted that light released at a place where gravity is strong will be reddened as it moves to places where gravity is weaker.

But that does not mean that contemporary scientists accept its theory of relativity as incompatible fact. Now they're looking to answer another question: Are Einstein's predictions even in a much stronger gravitational environment?

A new experiment had to be done and the black holes, the remains of the burning of mass stars with gravity forces as strong as light could even escape that would enable a perfect environment to test Einstein's theory of relativity.

In the center of nearly every galaxy we have a black nerophole. In our galaxy “the path of Tambili” stands one with a measure of 4 million times higher than our sun. It's called Archer A, since its location is the constellations of the Arrow.

The black hole is not alone but is surrounded by stars that orbit it very closely and sometimes in very elliptic orbits. And this is the key to new measurements. A star named S2 has passed by Arrow-A*, traveling through a gravity region that is millions of times higher than the one that can be experienced on Earth.

There is a central feature in general relativity called the unstable local position, or LPI, which says that any measurement performed in a loosely falling object should be identical even if it is a strong gravitational field even if there is no gravity at all. Sounds a little complicated, but there's really no difference that it's time to say that the handpiece of a jumper with a parachutist like that of a deep astronaut in space where there is no gravity. That watch has to work the same for one thrown from the height of Jupiter, which has far more gravity than Earth.

Especially in the LPI stands, then measurements should be completely blind to whether they're in a gravitational field. If measurements disability the LPI, they also disability Einstein's theory.

Picking up a clock near a distant star or a black hole is not impossible, so scientists had to come with different means of comparison. Stars are predominately made from two atomic, hydrogen and helium elements. Each element emits a unique set of colors, and each color has different frequencies. This has been well measured in the low - gravity environment on Earth, and scientists wanted to see if the elements produced the same colors in a high - gravity field. If not, this would make the LPI disabled.

Thus, to perform the test, scientists looked at the light released by S2 until it fell into the strong gravitational field of Archer A. Now, because the light released by the star moved from the high gravity near the black hole to low gravity on the ground where scientists were doing surveillance, the colors are expected to look more fried on the ground than they were when they were launched by the star. However, the color of light released by hydrogen and the color of light released by helium had to be red in the same quantity.

And this is what scientists observed. Both elements released the same wave length of light until they fell across the strong gravitational field of the black hole as they were emitted in the weak gravitational field on earth. Einstein's theory of general relativity was renewed, and these findings were published in the Physical Review Letters.

While this measurement represents a great scientific triumph, researchers are not dropping in their honours. Another study, called Extremously Great Telescope, will be able to do even more precise tests of general relativity, so we can be sure that other measurements are on the way.

You may be surprised why scientists constantly contest major theories like Einstein's, but that's just the nature of science. No scientific prediction should be taken as sacred. Like the ideas of Sir Isaac Newton that developed in the 1670 ' s were replaced by Einstein's, scientists expect his theories to be replaced by something better. Until then, Einstein's gravity theory will continue to reign.