peer reviewedJupiter’s rapidly rotating, strong magnetic field provides a natural laboratory that is key to understanding the dynamics of high-energy plasmas. Spectacular auroral x-ray flares are diagnostic of the most energetic processes governing magnetospheres but seemingly unique to Jupiter. Since their discovery 40 years ago, the processes that produce Jupiter’s x-ray flares have remained unknown. Here, we report simultaneous in situ satellite and space-based telescope observations that reveal the processes that produce Jupiter’s x-ray flares, showing surprising similarities to terrestrial ion aurora. Planetary-scale electromagnetic waves are observed to modulate electromagnetic ion cyclotron waves, periodically causing heavy ions to p...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Auroral hot spots are observed across the Universe at different scales1 and mark the coupling bet...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter’s rapidly rotating, strong magnetic field provides a natural laboratory that is key to under...
Jupiter's rapidly rotating, strong magnetic field provides a natural laboratory that is key to under...
Jupiter’s rapidly rotating, strong magnetic field provides a natural laboratory that is key to under...
We present results from a multiwavelength observation of Jupiter’s northern aurorae, carried out sim...
Jupiter's polar X-ray aurora is dominated by a bright dynamic hot spot that is produced by precipita...
Jupiter produces dynamic X-ray auroral emissions at both of its poles [e.g Gladstone et al. 2002; Cr...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
We present a detailed analysis of Jupiter's X-ray (0.2.10 keV) auroral emissions as observed over tw...
Auroral hot spots are observed across the Universe at different scales1 and mark the coupling betwee...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Auroral hot spots are observed across the Universe at different scales1 and mark the coupling bet...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter’s rapidly rotating, strong magnetic field provides a natural laboratory that is key to under...
Jupiter's rapidly rotating, strong magnetic field provides a natural laboratory that is key to under...
Jupiter’s rapidly rotating, strong magnetic field provides a natural laboratory that is key to under...
We present results from a multiwavelength observation of Jupiter’s northern aurorae, carried out sim...
Jupiter's polar X-ray aurora is dominated by a bright dynamic hot spot that is produced by precipita...
Jupiter produces dynamic X-ray auroral emissions at both of its poles [e.g Gladstone et al. 2002; Cr...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
We present a detailed analysis of Jupiter's X-ray (0.2.10 keV) auroral emissions as observed over tw...
Auroral hot spots are observed across the Universe at different scales1 and mark the coupling betwee...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...
Auroral hot spots are observed across the Universe at different scales1 and mark the coupling bet...
Jupiter's X-ray auroral emission in the polar cap region results from particles which have undergone...