The Sun, whose mass is about 109 times more than our Earth, and as we know, the Sun is a ball of fire, whose life on earth is possible only with light. How much we know about the Sun, we know just as much as our scientists have discovered about the Sun. Do you know, the atmosphere of the Sun is warmer than its surface, and it remains a mystery to scientists even today, how it is possible that its atmosphere is warmer than the surface of the Sun, to reveal the secret Therefore, scientists are studying the Sun very closely.
Researchers want to know the answer to those questions to understand why the Sun’s atmosphere is so much warmer than the surface, and to help differentiate between a host of theories about the causes of this heating, researchers at NASA Interface areas are heading towards imaging spectrograph (IRIS) missions. IRIS is designed to be closely zoomed at specific hard-to-see events on the Sun.
The nanoflare is a very small incidental heating phenomenon that occurs in the sun’s outer atmosphere. A nanoflare arises from a phenomenon of magnetic reconstruction, which nanoflares know as small explosions on the Sun, but they are difficult to spot. Nanoflares They are very small, and very fast, meaning that they are difficult to eject against the sun’s shiny surface. On April 3, 2014, known as the coronal rain event, as the currents of the cooled plasma fall from the corona to the surface of the sun, it appears almost like a giant waterfall, and the researchers show up at the end of the event Having seen the bright jet. These are telltale flash nanosets, which travel so rapidly with hot plasma, that they appear on images, such as the bright thin lines seen within magnetic loops on the Sun, to make nano-jets “smoke.” Gun “, considered to be the prime proof of the presence of nanoflars. As we know, each nanojet is initiated by a process known as magnetic recombination, where twisted magnetic fields are reproduced explosively. Researchers believe that, creating an avalanche of nanosets in the Sun’s corona, one process can establish another recombination, which can generate an energy, causing the Sun’s corona to warm.
In the sun’s outer atmosphere, IRIS gathers its high-resolution images by focusing on a small part, and for this reason we consider a combination of observing a specific event to make educated guesses, and see the right place at the right time. Researchers first coordinated with NASA’s Solar Dynamics Observatory (SDO) and Hinode Observatory, and Japan Aerospace Exploration Agency, ESA (European Space Agency) and NASA, once the nanostates were identified against the backdrop of coronal rain. There was a partnership between Under which looking closely at the Sun, and confirming whether they could detect nanosets, if yes, they could assess their effects on the corona.
Researchers looked at the Sun, observing many events, advanced simulations were combined with many observations. The model suggests, that the nanonates were magnetic recombination and a guppy signature of the nanofluors, which contribute to coronal heating in the simulation. Researchers say that more studies need to be done to establish the frequency of nanosets and nanoflares in the Sun, and how much energy contributes to heating the solar corona.