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Astronomers measure the mass of a resting black hole, the lost proto planet of our solar system and other scientific stories
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Astronomers measure the quality of hibernation black holes, the lost planets of the solar system and more scientific stories.
Science News this week.
For science news, it's a busy week. Following the discovery of a leak in the transmission tunnel, astronauts on board the International Space Station were briefly ordered to take refuge, NASA officially announced the death of its MAVEN space detector, and scientists announced the development of a “universal vaccine” designed by AI. In addition, researchers have directly measured the quality of remote black holes using the James Weber Space Telescope, while a meteorite reveals clues to a long-lost original planet in the solar system. We're here to learn about these stories and more about this week.
JWST measured the mass of remote hibernation black holes
Researchers used data from the James Weber Space Telescope to measure the quality of hibernation black holes over 10 billion light years. The hibernation black holes are more difficult to observe than the active black holes, because when substances are inhaled they are not surrounded by thermal gases and the light from dust around them. However, due to the ability of JWST and the gravitational lens effect, or the gravitational forces of large mass bodies such as black holes, which distort the light that passes through them, the team was able to measure the black hole at the centre of MRG-M0138 (a distant galaxy from the early universe).
The technology is characterized as “combining the vision of the JWST with the natural magnifying glass”, according to Andrew Newman, lead author of the Carnegie Science Center. Newman said, "By combining JWST data with gravity lenses, we can look at the extent of the impact of a black hole, where its gravity increases the speed of a star." "This is one of the best techniques for measuring the quality of a black hole, so we are happy to be able to extend it to an earlier time in the history of the universe."
This is the longest hibernation black hole that astronomers have been able to measure directly to date, and these discoveries can help scientists better understand the formation of large mass black holes and galaxies billions of years ago. The paper was published in Science magazine.
Evidence of a long-lost world.
According to scientists, a meteorite found in the Sahara desert of Africa had evidence of the original planet orbiting the Sun 4.5 billion years ago. The space rocks they study are a rare guava meteorite from volcanic rock, dating back to the first few million years of the solar system.
Aaron Bell, Assistant Research Professor at the Borde, University of Colorado, said: “The material that forms the guava mother is fundamentally different from the composition of the Earth and Mars.” “It points to a unique and independent evolutionary path of planet formation in the early history of the solar system.”
The red meteorite is considered to be the product of asteroids, as they contain very little silicon dioxide compared to the composition of Earth and other Earth-type planets, while the Earth and other Earth-type planets contain a rich amount of silicon dioxide. However, among the meteorites known as NWA 12774, researchers discovered a mineral crystal rich in aluminium, i.e., a monosole, which they said indicated that it was formed under much greater pressure than permitted by the origin of the asteroid. The study team indicated that it required at least 17.5 kilobaric pressure to form, and that the pattern of crystals inside the meteorite showed that it was formed in the shallow layer rather than deep underground. To make all this possible, the Matrix takes a big -- a radius of over 1,118 miles.
According to the study team, the object may be as big as the moon or even as big as Mars. Bell said, “We only know it exists because some of its fragments happen to be on Earth.” “These meteorites preserve evidence of completely different paths to early planetary development.” The team ' s findings were published in the magazine Earth and Planetary Science Express.
