- 1Jet Propulsion Laboratory, California Institute of Technology, Pasadena, USA, Steven.M.Levin@Jpl.nasa.gov
- *A full list of authors appears at the end of the abstract
Juno has transformed our view of Jupiter through major discoveries about its interior structure, origin, and evolution; atmospheric dynamics and composition; magnetic dynamo; and polar magnetosphere. The natural evolution of Juno’s polar orbit brings new regions within reach with every close passage to Jupiter, as the inbound equator crossing marches ever closer to the giant planet. The 1st extended mission began in August 2021 and provided the first close flybys of Io, Europa and Ganymede since the Galileo mission. The second extended mission (EM2) began in October 2025, providing opportunities for Juno to probe previously unexplored regions, and to follow up on Juno’s discoveries made during its prime and 1st extended missions. During EM2, Juno dvies deep into Jupiter's inner radiation belts, where the rings and inner moons reside, providing an opportunity to investigate these components and their complex interaction, yielding a unique data set to compare with other giant planet ring systems, including the ice giants. Juno’s polar perijoves provide the opportunity to continue the exploration of Jupiter’s circumpolar cyclones over a wide range of altitudes/depths via imagery, occultations and microwave sounding. Radio science occultations will characterize the upper atmosphere to levels as deep as 0.5 bar. Gravity passes over the north polar region will constrain the depth and mass of the polar cyclones and will also be compared to MWR's sounding of the same. An overview of the major results from Juno including new results obtained during EM2 will be presented.
Juno Project Team
How to cite: Levin, S. and the Juno Science Team: Science from Juno’s Continuing Extended Mission, EGU General Assembly 2026, Vienna, Austria, 3–8 May 2026, EGU26-22848, https://doi.org/10.5194/egusphere-egu26-22848, 2026.