Hubble sees the exploding star in oblivion


Hubble sees the exploding star in oblivion

Astronomers using NASA’s Hubble Space Telescope have achieved the status of a supernova, the fast-disappearing celebrity of the star’s extinction. Hubble snapshots have been collected in a movie about the explosion of the Titanic stars that disappeared into oblivion in a spiral galaxy NGC 2525, 70 million light-years away. After the supernova was first discovered by amateur astronomer Koichi Itagaki a few weeks ago in mid-January, Hubble began observing the SN 2018 GV in February 2018. Hubble astronomers were using supernovae as part of a program to accurately measure the rate of expansion of the universe, which is an important value in understanding the physical evolution of the universe. Supernovae serve as a landmark for measuring the distance of galaxies, which is the basic value required to measure the expansion of space. The supernova appears as a shining star located on the outer edge of the galaxy in the lower left of the frame. It beats the brightest stars in the galaxy before it is initially visible. The time-lapse video includes observations taken between February 2018 and February 2019. Credit: NASA, ESA, and A Recess (STSCI / JHU) and SH0ES team

When a star emits as much energy as our sun in a few billion years, you know it won’t be visible for long.


Like the intergalactic paparazzi, NASA’s Hubble Space Telescope achieved the status of a supernova, the fast, fading celebrity of the star’s self-explosion. Hubble snapshots have been collected in a movie about the explosion of the Titanic stars that disappeared into oblivion in a spiral galaxy NGC 2525, 70 million light-years away.

After the supernova was first discovered by amateur astronomer Koichi Itagaki a few weeks ago in mid-January, Hubble began observing the SN 2018 GV in February 2018. Hubble astronomers were using supernovae as part of a program to accurately measure the rate of expansion of the universe, an important value in understanding the physical evolution of the universe. Supernovae serve as a landmark for measuring the distance of galaxies, which is the basic value required to measure the expansion of space.

In the course of time, about a year later, the supernova first appears as a shining star located on the outer edge of the galaxy. It beats the brightest stars in the galaxy before it is initially visible.

This video shows a unique time elapsed in the Galaxy NGC 2525 Supernova 2018 GV, in which the duration of about a year is compressed in a few seconds. The supernova is captured by Hubble in exquisite detail inside this galaxy in the lower left of the frame. It appears as a very bright star located on the outer edge of the galaxy’s spiral arm. This new and unique time of Hubble images passes before it fades into obscurity during observations of the tablescope, initially showing the once bright supernova advancing the bright stars of the galaxy. The graph of light-curve to the right, precisely plots the fusion of supernovae. This period includes observations taken from February 2018 to February 2019. NGC 2525 is located about 70 million light-years from Earth. Credit: NASA, ESA, m. Cornmesser and m. Zamani (ESA / Hubble), and a. Reese (STSCI / JHU) and SH0S. T.

Adam Reese, a Nobel laureate from the Space Telescope Science Institute (STSCI) and Johns Hopkins University in Baltimore, Maryland, said no Earth-based fireworks display could compete with the supernova, which will be housed in the Hubble Space Telescope. High-Z supernova search team to measure the expansion rate of the universe and supernova H0 for Equation State (SHES).

The supernova type seen in this sequence originates from a burning star – a white dwarf located in a nearby binary system – which stimulates the contents of its fellow star. When a white dwarf reaches a complex mass, its main atom is heated enough to ignite a compound, turning it into a giant atom bomb. This thermonuclear fugitive process destabilizes the dwarf. Scientology is short-lived as firefighters are declining.

Because these types of supernovae are at all luminous brightness, they are known as “standard candles”, which act as cosmic tape measures. By knowing the actual brightness of a supernova and observing its luminosity in the sky, astronomers can calculate the distances of their host galaxies. This allows astronomers to measure the rate of expansion of the universe. Over the past 30 years, Hubei has made dramatic improvements in improving the accuracy of the universe’s expansion rate.


Image: Hubble captures supernova host galaxy


Provided by ESA / Hubble Information Center

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