The origin of Uranus and Neptune is still unknown. In particular, it has been challenging for planet formation models to form the planets in their current radial distances within the expected lifetime of the solar nebula. In this paper, we simulate the in-situ formation of Uranus and Neptune via pebble accretion and show that both planets can form within ~ 3 Myr at their current locations, and have final compositions that are consistent with the heavy-element to H-He ratios predicted by structure models. We find that Uranus and Neptune could have been formed at their current locations. In several cases a few earth masses of heavy elements are missing, suggesting that Uranus and/or Neptune may have accreted $\sim$1 -- 3 M Earth's mass of hea...
The formation mechanisms of the ice giants Uranus and Neptune, and the origin of their elemental and...
The formation mechanisms of the ice giants Uranus and Neptune, and the origin of their elemental and...
The origin of close-in giant planets is a key open question in planet formation theory. The two lead...
The origin of Uranus and Neptune is still unknown. In particular, it has been challenging for planet...
The origin of Uranus and Neptune remains a challenge for planet formation models. A potential explan...
Neptune is the outermost of the four giant planets in our solar system. The region in which Neptune ...
Giant planet formation process is still not completely understood. The current most accepted paradig...
Context. Modeling the formation of the ice giants Uranus and Neptune has been a challenging problem ...
In this paper, we discuss some problems concerning the formation of Uranus and Neptune. We find that...
The outer giant planets, Uranus and Neptune, pose a challenge to theories of planet formation. They ...
International audienceReproducing Uranus and Neptune remains a challenge for simulations of solar sy...
Previous simulations of planet formation utilizing single bodies including pebble accretion and plan...
The standard model for giant planet formation is based on the accretion of solids by a growing plane...
According to both spectroscopic measurements and interior models, Jupiter, Saturn, Uranus and Neptun...
The formation mechanisms of the ice giants Uranus and Neptune, and the origin of their elemental and...
The formation mechanisms of the ice giants Uranus and Neptune, and the origin of their elemental and...
The origin of close-in giant planets is a key open question in planet formation theory. The two lead...
The origin of Uranus and Neptune is still unknown. In particular, it has been challenging for planet...
The origin of Uranus and Neptune remains a challenge for planet formation models. A potential explan...
Neptune is the outermost of the four giant planets in our solar system. The region in which Neptune ...
Giant planet formation process is still not completely understood. The current most accepted paradig...
Context. Modeling the formation of the ice giants Uranus and Neptune has been a challenging problem ...
In this paper, we discuss some problems concerning the formation of Uranus and Neptune. We find that...
The outer giant planets, Uranus and Neptune, pose a challenge to theories of planet formation. They ...
International audienceReproducing Uranus and Neptune remains a challenge for simulations of solar sy...
Previous simulations of planet formation utilizing single bodies including pebble accretion and plan...
The standard model for giant planet formation is based on the accretion of solids by a growing plane...
According to both spectroscopic measurements and interior models, Jupiter, Saturn, Uranus and Neptun...
The formation mechanisms of the ice giants Uranus and Neptune, and the origin of their elemental and...
The formation mechanisms of the ice giants Uranus and Neptune, and the origin of their elemental and...
The origin of close-in giant planets is a key open question in planet formation theory. The two lead...