Brittle star

of habitable planets as they both are very Earth-like: Kepler 438b is said to be 70% be in the habitable zone of its star where as Kpler 442b has a chance of 97% be in the habitable zone (Technewsworld). This shows that both exoplanets are likely to have water in liquid state hence maybe able to obtain life. Base on the sizes of the two exoplanets and their distance from their star. Ian Sample, science editor of The guardian mentioned that both planets is likely to be having a rocky surface that resemble

dwarfs, neutron stars formed when the original star cannot support themselves against gravitational collapse by generating thermal pressure. They are born from once large stars that grew to be four to eight times the size of our sun before exploding. After the explosion, the only part of the star that remains is its core, but it no longer produces nuclear fusion. The neutron star density causes protons and elections to combine into neutrons, which is how the star got its name. Neutron stars rotate in space

the universe is recycled constantly through the formation and evolution of stars. Clouds of atomic gas cool and condense, forming cold, dense clouds of molecular gas. Within these clouds of cold gas, stars can form. It takes just some push, pull, or magnetic field to cause the cloud to fall into gravitational collapse. Once the cloud is collapsing, the road to becoming a star is an inevitable one. The formation of a star involves many different stages. In the beginning, there is just dust and a gas

collection of dust, gases and stars. A galaxy is created right after the birth of a universe and held together, it is constantly moving through space. There are four different kinds of galaxies: spiral, barred spiral, elliptical and irregular. (Spiral Galaxies) A typical spiral galaxies can be define by how its form, structure, and characterize. Spiral galaxies have the shape of spiral, hit where they get their name from. The arms of the spiral galaxies are made of the stars, gas and dust. Depending

Brown Dwarfs shoots Jet and share star formation A brief Breakdown Just in case you were confused, brown dwarfs (http://coolcosmos.ipac.caltech.edu/cosmic_classroom/cosmic_reference/brown_dwarfs.html) refers to the objects in space that are too big to be planets but also too small to be a star. They are in between the two but are often thought that they form the same way stars do. In fact, they were just a theory, like many things in science, until one day one brown dwarf was discovered in 1995

astronomers I knew used constellations to do so, as they could be used to point towards other stars, or in some cases (as with Orion) contained an object of interest -- the Orion Nebula. One winter night, looking at reference material, as the sky was clear for a change, I decided to compare my reference source with the night sky. It was in doing so that I met Orion for the first time (and Sirius, the "dog star", at his heels). The magic of being able to identify a constellation, that first moment of

chosen the constellation Scorpion, because it's my friends constellation. Scorpion is a constellation to the Southern sky dome, lying in the galaxy, between the right ascension 15u44m and 17u55m and between -8° and -46° declination. The following stars are part of the constellation; Antares, Acrab (or Elacrab), Dschubba, Sargas, Jabbah, Girtab, Iclill and Alniyat. 2. Orion is a figure from Greek mythology. He was, according to tradition, a good hunter from Thebes and the only person to whom Artemis

-75°. The Orion Sandefur 2 constellation consists of many stars, the most notable stars are: Betelgeuse, Meissa, Bellatrix, Alnitak, Alnilam, Mintaka, Saiph, Rigel, and M42. The constellation mainly consists of bright blue supergiant stars, the most notable star is the red supergiant Betelgeuse which lies on Orion's shoulder. The star Betelgeuse, is a red giant and one of the largest stars known. It is the only star in the sky large enough and close enough to have been imaged

cooled, and in the first few minutes synthesized helium and other light elements became transparent after 400 000 years releasing the cosmic microwave background radiation, and slowly got clumpier due to gravitational clustering, producing galaxies, stars, and planets.2 However, there is a lot of things that the Big Bang theory does not explain. For instance, why is the universe isotropic? Why is space-time flat? So, what is the process right after the Big Bang? It is believed that inflation

they were when they formed a disc. The thing that all the planets were orbiting around is the sun. When the disc ended entirely, it was so hot that the whole thing made a star which is now the sun. All of the disc either went towards creating a planet, moon, sun, or other meteorites. When the sun became a star, it blew into space with dust and gas creating the solar system formations. Since the sun was the hottest and last item of the cloud, it became the planets’ orbiting place.