Recent formation and structure models of Jupiter suggest that the planet can have composition gradients and not be fully convective (adiabatic). This possibility directly affects our understanding of Jupiter’s bulk composition and origin. In this Letter we present Jupiter’s evolution with a primordial structure consisting of a relatively steep heavy-element gradient of 40 M⊕. We show that for a primordial structure with composition gradients, most of the mixing occurs in the outer part of the gradient during the early evolution (several 107 yr), leading to an adiabatic outer envelope (60% of Jupiter’s mass). We find that the composition gradient in the deep interior persists, suggesting that ~40% of Jupiter’s mass can be non-adiabatic with ...
Aims. The secondary atmospheres of terrestrial planets form and evolve as a consequence of interacti...
Jupiter’s atmosphere is enriched with heavy elements by a factor of about 3 compared to a protosolar...
Context. Heavy elements, even though they are a smaller constituent, are crucial to unders...
Recent formation and structure models of Jupiter suggest that the planet can have composition gradie...
The internal structure of gas giant planets may be more complex than the commonly assumed core-envel...
The composition of Jupiter and the primordial distribution of the heavy elements are determined by i...
Recent structure models of Jupiter that match Juno gravity data suggest that the planet harbours an ...
International audienceThe Juno mission has revolutionized and challenged our understanding of Jupite...
The formation history of giant planets determines their primordial structure and consequent evolutio...
While Jupiter's massive gas envelope consists mainly of hydrogen and helium, the key to understandin...
The origin of close-in giant planets is a key open question in planet formation theory. The two lead...
The Juno mission has revolutionized and challenged our understanding of Jupiter. As Juno transitions...
International audienceInterior models of giant planets traditionally assume that at a given radius (...
The low luminosity of Uranus is a long-standing challenge in planetary science. Simple adiabatic mod...
Aims. The secondary atmospheres of terrestrial planets form and evolve as a consequence of interacti...
Jupiter’s atmosphere is enriched with heavy elements by a factor of about 3 compared to a protosolar...
Context. Heavy elements, even though they are a smaller constituent, are crucial to unders...
Recent formation and structure models of Jupiter suggest that the planet can have composition gradie...
The internal structure of gas giant planets may be more complex than the commonly assumed core-envel...
The composition of Jupiter and the primordial distribution of the heavy elements are determined by i...
Recent structure models of Jupiter that match Juno gravity data suggest that the planet harbours an ...
International audienceThe Juno mission has revolutionized and challenged our understanding of Jupite...
The formation history of giant planets determines their primordial structure and consequent evolutio...
While Jupiter's massive gas envelope consists mainly of hydrogen and helium, the key to understandin...
The origin of close-in giant planets is a key open question in planet formation theory. The two lead...
The Juno mission has revolutionized and challenged our understanding of Jupiter. As Juno transitions...
International audienceInterior models of giant planets traditionally assume that at a given radius (...
The low luminosity of Uranus is a long-standing challenge in planetary science. Simple adiabatic mod...
Aims. The secondary atmospheres of terrestrial planets form and evolve as a consequence of interacti...
Jupiter’s atmosphere is enriched with heavy elements by a factor of about 3 compared to a protosolar...
Context. Heavy elements, even though they are a smaller constituent, are crucial to unders...