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NASA reaches the limit of the Big Bang and finds something unusual — There are more than 40




The James Webb Space Telescope (JWST) of NASA recently delivered a remarkable finding by discovering individual stars in a galaxy 6.5 billion light years away. The incredible discovery was published by the Nature Astronomy magazine, proving JWST’s potential to explore distant galaxies even while providing fresh facts on the evolution of galaxies and dark matter.

Discovery of the curving of light by the cosmos: Analysis of Abell 370

The amazing thing about this discovery was where 44 different stars were magnified by the Abell 370 galaxy cluster, during which hurled gravitationally light path bending the magnification principle. The galaxy cluster fell between FRB 0605 and Earth; FRB 0605 was brought more forcefully into the front and closer to Earth.

To do this by distorting everything, it had to bend time: once all the light went out as though the stars were very much closer. This was enough to create an “Einstein Ring,” of which one familiar to the layman is based on his theory in 1915.

Hence, this is called “gravitational lensing,” technique that uses the gravitational field of a massive object to magnify light to background distant stars. The Dragon Arc looks like as if a string line is let fall over the galaxy and its “curves” at a specific viewing angle.

By using the colors of stars within the arc, scientists have found that many of them are red super giants, which are quite massive stars like: those nearing the end of their lives. Researchers now know that such characteristics are not always found in stars far out in the distant universe. Gravitational lensing has added cosmic twists to the study of stellar details, which were earlier considered impossible to detect.

Red super giants unveiled in the Dragon Arc System with James Webb Space Telescope

The size and brightness of red super giants like Betelgeuse and Aldebaran in our galaxy make them some of the most enormous and luminous stars known to exist. By detecting and observing such stars in a distant galaxy, JWST gives an unparalleled opportunity to astronomers for studying them in a distant galactic context completely excluded from our local galactic neighborhood.

While the red super giants are well understood in the nearby galaxies, knowledge on the kind of role they play in early galaxy is adding another layer to what we already know about stellar evolution. The discovery of red super giants in the Dragon Arc galaxy really helps to establish further in this context the process of the formation of galaxies.

These are stars in the final stages-they can give us some idea on how galaxies will evolve in the future across the universe. The detection of these supergiant red stars in a galaxy that is ages older indicates to the astronomers how the star-forming and stellar dying complexes within galaxies developed in the early years of galaxy evolution.

Dark matter and dark energy give insight to a rotation problem: A counterintuitive idea

Dark matter constitutes some 85% of the total mass of the universe and has properties missing in all other forms of matter and accounts for much of the gravitational interaction within our universe. Because of its heavy makeup, dark matter cannot be detected other than through its gravitational force.

Nevertheless, scientists speculate that when the cosmic dark matter meets an object, gravity is distorted. Thus, they believe that light is bent around galaxies and other large cosmic entities, they should be able to detect dark matter indirectly.

The said discovery of the James Webb Space Telescope is making history in the latest understanding of the universe: Starring a single star from a galaxy that is 6.5 billion years and light-years away. This could open fresh ways to inform the study of galaxy creations and how they evolve, since more detections are expected with time, thereby rendering JWST capable of revolutionizing our knowledge of the cosmos, including dark matter and how stars behave in the distant universe.

Website: International Conference on High Energy Physics and Computational Science.

#HighEnergyPhysics#ParticlePhysics#QuantumPhysics#AstroparticlePhysics#ColliderPhysics#HiggsBoson#LHC#QuantumFieldTheory#NeutrinoPhysics#PhysicsResearch#ComputationalScience#DataScience#ScientificComputing#NumericalMethods#HighPerformanceComputing#MachineLearningInScience#BigData#AlgorithmDevelopment#SimulationScience#ParallelComputing

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