NASA Juno Spacecraft Revelations: Southern Lights, Magnetosphere, Massie Cyclone formed The Biggest Planet Of Solar System
NASA's Juno spacecraft is back with some amazing information about the largest planet in our Solar System, Jupiter. The spacecraft images have revealed latest information about the largest planet. The magnetosphere has created a new mystery with massive cyclone and southern lights.
NASA wanted to unveil new horizons while discovering new planets of the Solar System. Previously, the scientists were having limited information about the biggest planet Jupiter. With the mission, the NASA scientists will be able to unlock new mysteries revolving around the planet.
The real goal of NASA Juno Spacecraft is to learn more about how the planets in our Solar System formed. These discoveries will help the scientists to better understand how all planets form and to better comprehend the nature of the Universe. The Juno has mapped the gas giant in detail and gathered date on the atmosphere.
NASA Juno Spacecraft has unveiled important date regarding magnetic field and inner structure of the massive planet. The spacecraft has even compared the Earth and Jupiter's different magnetic spheres. With the spacecraft, it is revealed that the magnetosphere of Jupiter is expanding or contracting in response to solar winds.
NASA Juno Spacecraft even revealed the auroral emissions of the two planets. You can even catch the mesmerizing video of the southern lights of Jupiter captured by the Juno spacecraft. The entire gaseous planet is surrounded by magnetic field and solar winds cause the magnetosphere itself to expand and contract.
The NASA Juno Spacecraft has even captured odd sounds while entering into the magnetic field of Jupiter. The biggest planet in the Solar System is also home to strange northern lights totally different from those on the Earth. Juno has even unveiled Jupiter's atmosphere's thermal structure and explored the Jovian magnetic field. The NASA scientists were surprised to learn that it is actually twice as powerful as predicted by previous models.
