Skip to main content

For the first time the ringing of any newborn black hole has been detected.


You would all know about Einstein's general theory of relativity, whether this theory is true, or not, if two black holes collide with each other on a large scale, this phenomenon arises from semiconductor collisions, which themselves  Must have a "ring" from which gravitational waves are formed, similar to sound waves. A prediction was made by Einstein, says Einstein, that the particular pitch and decay of gravitational waves must be a direct signature of the mass and spin of the newly formed black hole.MIT and other physicists have "heard" the ringing of an infant black hole for the first time, and the result was that the ringing pattern actually approximates the mass and spin of the black hole, and proves that, Einstein's  The theory is correct.

Published in Physical Review Letters, that a black hole lacks any kind of "hair", and mentions the idea that, according to Einstein's theory, black holes should exhibit three observable properties, Such as mass, spin, and electric charge. And all other characteristics, which physicist John Wheeler called "hair", because it swallowed itself up by black holes It should therefore be unattainable.Teem's conclusion is the idea that black holes are actually childless, and the same researchers were able to identify the ringing pattern of a black hole, and using Einstein's equations, black  Calculated the mass and spin of the hole, given its ringing pattern.The mass and spin of the black hole were measured in these calculations.

The team's measurements encode properties other than the measurement black hole's ringing, mass, spin, and electric charge, and elucidate evidence for physics beyond the same Einstein's theory, but it turns out, the black hole's ringing pattern Its mass and spin have a direct signature, supporting the notion that black holes are bald-faced giants, including any external, hair-like  Lack of Unon Kawas Institute Ha.amaiti for Astrophysics and Space Research at NASA Einstein Fellow.This is the first experimental measurement, which is successful in the direct test of the balding theorem, black holes cannot contain hair, which means that a picture of a balding black hole remains for one day.

For the first time on September 9, 2015, scientists created space-time gravitational waves detectors in space, emanating from far-flung, violent cosmic phenomena, named GW150914, identified by the Laser Interferometer Gravitational-Wave Observatory LIGO Was When the scientists cleared out the noise, and zoomed in on the signal, they saw a wave, which quickly erupted before going away, when they translated the signal into sound, resembling a "chirp" hear anything.When scientists determined that two massive masses of gravitational waves were established by the rapid inspiration of the black hole, and the peak of the same signal — the largest part — is the chirp, and it is connected at that very moment,When two black holes collide, a single, new black hole merges into it, and this baby black hole likely set off its own gravitational waves, and While its signature was ringing, physicists believed it would be too faint to reduce the middle of the initial collision.

When Ishii and his colleagues found a way to extract the black hole's re-existence from moments, immediately after the signal, and in previous work led by co-writer Matthew Gissler, the team showed, through simulations, that  One such signal, and especially the part immediately after the peak, is "overtones", and it is the family of short-lived tones.Considering the overtones, the researchers discovered that they could successfully isolate a ringing pattern that was specific to a newly formed black hole, when the signal was reattached.  Researchers applied this technique to real data from GW150914 detection, so it immediately follows the peak of the chord, focusing on the last few milliseconds of the signal.Keeping in mind the overtones of the signal, the infants were able to sense the ringing coming from the black hole.  They identified two distinct vowels, each with a pitch and decay rate, and were able to measure them.According to Einstein's general theory of relativity, the pitch and decay of the gravitational waves of a black hole proven must be the direct product of its mass and spin, and a black hole of a given mass and spin produces only a fixed pitch and tons of decay.When testing Einstein's theory, the team used the equations of general relativity to form a newly formed black hole.Mass and had to calculate the spin, so he was given the pitch and decay known two vowels.And they found that their calculations corresponded to the measurement of the mass of a black hole, and that spin was first created by others.  When the researcher, in fact, used the loudest, most recognizable parts of the gravitational wave signal about the ringing of a new black hole, and scientists assumed that this ringing was detected only at the very catastrophic end  Can be applied.  This can happen with gravitational wave signals, and much more sensitive devices than only currently exist.

If more sensitive devices come online in the future, researchers will be able to use the group's methods to "hear" the ringing of other nascent black holes. In the future, we'll have better detectors in Earth and space, and not just two, but tens.Modes and pin their properties properly, says Ishii.If these were not as black holes as Einstein's, they would be more like wormhole or boson stars.That there are foreign objects, and it cannot ring in the same way. 

Comments

Popular posts from this blog

NASA/ESA Hubble Space Telescope Reveals New Details of the Orion Nebula’s Star Formation.

  This NASA/ESA Hubble Space Telescope image captures the Orion Nebula (Messier 42, M42), the nearest star-forming region to Earth, located about 1,500 light-years away. A captivating new image captured by the NASA/ESA Hubble Space Telescope offers an extraordinary look into the Orion Nebula, the nearest massive star-forming region to Earth. Located just 1,500 light-years away, this nebula is visible to the naked eye below the three stars forming Orion's "belt." The region is home to hundreds of newborn stars, including two protostars featured in the image: HOPS 150 and HOPS 153. Named after the Herschel Orion Protostar Survey, conducted with ESA’s Herschel Space Observatory, the protostars HOPS 150 and HOPS 153 provide key insights into the early stages of star formation. HOPS 150, visible in the upper-right corner of the image, is a binary star system, with two young stars orbiting one another. These protostars are surrounded by small dusty disks, where material from th...

New Method Detects Small Asteroids in Main Belt, Offering Insight for Planetary Defense.

  An international team of physicists, led by MIT researchers, has developed a groundbreaking method to detect small asteroids, as small as 10 meters in diameter, within the main asteroid belt. These space rocks, ranging from the size of a bus to several stadiums wide, were previously undetectable using traditional methods. The team's discovery, detailed in a paper published in Nature, could significantly improve tracking of potential asteroid impactors, aiding planetary defense efforts. The main asteroid belt, located between Mars and Jupiter, is home to millions of asteroids, but until now, scientists could only detect objects roughly a kilometer in diameter. The new detection technique, which utilizes the "shift and stack" method, is able to identify much smaller asteroids, even those far from Earth, enabling more precise orbital tracking. This breakthrough is crucial for planetary defense, allowing scientists to spot near-Earth objects that may pose a threat in the fu...

XSPECT Payload Successfully Validates Performance through Cas A Observation.

  The XSPECT instrument captures a detailed spectrum of the supernova remnant Cassiopeia A (Cas A), encompassing both the Galactic Cosmic Ray (GCR) background and the Cosmic X-ray Background (CXB). The flux observed above 8 keV predominantly results from the combined contributions of CXB and GCR. The presented spectrum, depicted in the figure, is derived from a cumulative integration time of 20 ksec, collected across multiple orbits, providing valuable insights into the X-ray emissions associated with Cas A. XPoSat, India's inaugural X-ray polarimetric mission, has achieved a significant as the XSPECT instrument captures its initial observations from the Cassiopeia A (Cas A) supernova remnant. Launched on January 1, 2024, XPoSat is equipped with two co-aligned instruments, namely the POLarimeter Instrument in X-rays (POLIX) and X-ray SPECtroscopy and Timing (XSPECT). This mission is designed to unravel the mysteries of cosmic X-ray sources. While POLIX focuses on examining X-ray po...