Despite being the first supernova to be studied by modern science, SN1987A was a complete mystery due to its origins. It was progenitor by a blue giant star known as Sanduleak -69 202a. What made this unique was prior this supernova, the leading theory was that only red giants could produce supernovas. When the origin of SN1987A was discovered, it forced astronomers to revise the theory to encompass the events of this supernova. What they came up with was that, similar to a red giant, a portion of the blue giant’s fuel was turned inward to the core. As the core grew, the supernova occurred, leaving behind what astronomers called a neutron star, a compact star entirely made of neutrons and very dense, to the point of forcing out the space between atoms. This was supported by the detection of the Neutrinos by an underground detector in Japan. Just as amazing as the mystery of the origin of SN1987A, is the story behind its
Despite being the first supernova to be studied by modern science, SN1987A was a complete mystery due to its origins. It was progenitor by a blue giant star known as Sanduleak -69 202a. What made this unique was prior this supernova, the leading theory was that only red giants could produce supernovas. When the origin of SN1987A was discovered, it forced astronomers to revise the theory to encompass the events of this supernova. What they came up with was that, similar to a red giant, a portion of the blue giant’s fuel was turned inward to the core. As the core grew, the supernova occurred, leaving behind what astronomers called a neutron star, a compact star entirely made of neutrons and very dense, to the point of forcing out the space between atoms. This was supported by the detection of the Neutrinos by an underground detector in Japan. Just as amazing as the mystery of the origin of SN1987A, is the story behind its