Previous Juno mission event studies revealed powerful electron and ion acceleration, to
100s of kiloelectron volts and higher, at low altitudes over Jupiter's main aurora and polar …

This review aims at providing an up-to-date status and a general introduction to the subject
of the numerical study of energetic particle acceleration and transport in turbulent …

The most intense auroral emissions from Earth's polar regions, called discrete for their
sharply defined spatial configurations, are generated by a process involving coherent …

We investigate spatial and temporal scales at which wave‐particle interaction of Alfvén
waves occurs in Jupiter's magnetosphere. We consider electrons, protons, and oxygen ions …

The Juno spacecraft's polar orbits have enabled direct sampling of Jupiter's low‐altitude
auroral field lines. While various data sets have identified unique features over Jupiter's …

The electrodynamic coupling between Io and Jupiter gives rise to wave‐particle interactions
across multiple spatial scales. Here we report observations during Juno's 12th perijove (PJ) …

Jupiter's bright persistent polar aurora and Earth's dark polar region indicate that the planets'
magnetospheric topologies are very different. High-resolution global simulations show that …

The Alfvén wave mode transmits field‐aligned currents and large‐scale turbulence
throughout Jupiter's magnetosphere. Magnetometer data from the Juno spacecraft have …

Two new Juno‐observed particle features of Jupiter's main aurora demonstrate substantial
diversity of processes generating Jupiter's mysterious auroral emissions. It was previously …

We characterize the precipitating electrons accelerated in the Europa‐magnetosphere
interaction by analyzing in situ measurements and remote sensing observations recorded …