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kurious
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LIGO may have failed to detect gravity waves because they move faster than light and so have a greater wavelength than expected and probably a lower amplitude too.
ahrkron said:"the actions of the flexing in terms of Geometrical explanations"?
They sure have a lot of expertise and resources for computation in GR. GR may not be the ultimate theory of spacetime, but it sure has been bang on in many predictions.
Sol said:They have no way of knowing computationally how to describe
LIGO stands for Laser Interferometer Gravitational-Wave Observatory. It is a scientific experiment designed to detect gravitational waves, which are ripples in the fabric of space-time caused by massive objects moving in space. LIGO works by using two detectors, each consisting of two long, L-shaped arms with laser beams passing through them. When a gravitational wave passes through the detectors, it causes a minuscule stretching and squeezing of the arms, which is detected by the interference pattern of the laser beams.
According to Einstein's theory of general relativity, gravitational waves travel at the speed of light, which is approximately 299,792,458 meters per second. This means that they travel at the fastest possible speed in the universe.
Studying the speed of gravitational waves can provide valuable insights into the nature of gravity and the structure of space-time. It can also help to confirm the predictions of Einstein's theory of general relativity and potentially uncover new physics beyond our current understanding.
The speed of gravitational waves is measured using precise time measurements between the two LIGO detectors. If a gravitational wave is detected, the time it takes for the wave to reach one detector will be slightly different than the time it takes to reach the other detector. By comparing these time differences, scientists can calculate the speed of the gravitational wave.
Yes, the speed of gravitational waves has been measured to be equal to the speed of light. This was confirmed in 2017 when the LIGO detectors detected a gravitational wave from the collision of two neutron stars. The time delay between the two detectors was consistent with the speed of light, providing strong evidence for the accuracy of Einstein's theory of general relativity.