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Indian Astronomers Examine Magnetar CXOU J010043.1−721134
Astronomers from the Indian Space Research Organization (ISRO) have performed long-haul perceptions of an unconventional magnetar known as CXOU J010043.1−721134. The aftereffects of this checking effort shed all the more light on the idea of this source. The study was introduced in a paper distributed on May 19 on arXiv.org.
Magnetars are neutron stars with amazingly solid attractive fields, more than quadrillion times more grounded than the attractive field of our planet. Rot of attractive fields in magnetars powers the discharge of high-energy electromagnetic radiation, for example, as X-beams or radio waves.
CXOU J010043.1−721134 (or CXOU J010043) is an odd X-beam pulsar (AXP) in the Small Magellanic Cloud (SMC), which has been delegated a magnetar. It is the just known magnetar in the SMC and has the most minimal section thickness among any remaining recognized magnetars. Given that CXOU J010043 is situated far away from the galactic plane and its assimilation segment is very much obliged, this source can be explored with higher exactness contrasted with other known magnetars.
So a group of astronomers drove by Rwitika Chatterjee chose to investigate this magnetar. They have dissected the aftereffects of a 16-year long observational mission of this source utilizing ESA’s XMM-Newton space apparatus.
The perceptions found that CXOU J010043 has a twisted time of around 8.0275 seconds, which is average for magnetars as such articles have not many second terms. The magnetar seems to show a consistent twist down with a twist down the pace of about 0.0176 nanoseconds/second.
Moreover, the study found that CXOU J010043 has a dipolar attractive field of around 380 trillion #G and a trademark age of approximately 7,200 years. These outcomes are in concurrence with past perceptions of this magnetar.
The XMM-Newton information demonstrates that CXOU J010043 has a twofold topped heartbeat profile, shows no huge energy reliance. With regards to heartbeat divisions in the delicate and hard energy band, they lie in the reach 19−47 percent and 18−63 percent individually. The astronomers noticed that both heartbeat profiles, just as heartbeat division, don’t show striking transient varieties.