Abstract. Using N-body simulations with planet-disk interactions, we present a mechanism capable of forming compact systems of hot super Earths such as Kepler 11. Recent studies show that outward migration is common in the inner parts of radiative disks. However we show that two processes naturally tip the balance in favor of inward migration. First the corotation torque is too weak to generate outward migration for planetary embryos less massive than 4 M⊕. Second, system of multiple embryos generate sustained non-zero eccentricities that damp the corotation torque and again favor inward migration. Migration and accretion of planetary embryos in realistic disks naturally produce super Earths in resonant chains near the disk inner edge. Thei...
Super-Earths are found in tighter orbits than the Earth's around more than one third of main sequenc...
Super-Earths with orbital periods less than 100 days are extremely abundant around Sun-like stars. I...
International audienceAt least 30% of main sequence stars host planets with sizes of between 1 and 4...
Using N-body simulations with planet-disk interactions, we present a mechanism capable of forming co...
International audiencePlanetary embryos embedded in gaseous protoplanetary disks undergo Type I orbi...
Formation models of close-in super-Earths can be divided into two groups; namely, in-situ formation ...
Planetary embryos embedded in gaseous protoplanetary disks undergo Type I orbital migratio...
A leading model for the origin of super-Earths proposes that planetary embryos migrate inward and pi...
Context. A large fraction of stars host one or multiple close-in super-Earth planets. There is an ac...
Super-Earths with orbital periods less than 100 days are extremely abundant around Sun-like stars. I...
Context. Planetary embryos can continue to grow by pebble accretion until they become giant planet c...
Super-Earths – planets with sizes between the Earth and Neptune – are found in tighter orbits than t...
Super-Earths - planets with sizes between the Earth and Neptune - are found in tighter orbits than t...
At least 30% of main sequence stars host planets with sizes of between 1 and 4 Earth radii and orbit...
Super-Earths are found in tighter orbits than the Earth's around more than one third of main sequenc...
Super-Earths with orbital periods less than 100 days are extremely abundant around Sun-like stars. I...
International audienceAt least 30% of main sequence stars host planets with sizes of between 1 and 4...
Using N-body simulations with planet-disk interactions, we present a mechanism capable of forming co...
International audiencePlanetary embryos embedded in gaseous protoplanetary disks undergo Type I orbi...
Formation models of close-in super-Earths can be divided into two groups; namely, in-situ formation ...
Planetary embryos embedded in gaseous protoplanetary disks undergo Type I orbital migratio...
A leading model for the origin of super-Earths proposes that planetary embryos migrate inward and pi...
Context. A large fraction of stars host one or multiple close-in super-Earth planets. There is an ac...
Super-Earths with orbital periods less than 100 days are extremely abundant around Sun-like stars. I...
Context. Planetary embryos can continue to grow by pebble accretion until they become giant planet c...
Super-Earths – planets with sizes between the Earth and Neptune – are found in tighter orbits than t...
Super-Earths - planets with sizes between the Earth and Neptune - are found in tighter orbits than t...
At least 30% of main sequence stars host planets with sizes of between 1 and 4 Earth radii and orbit...
Super-Earths are found in tighter orbits than the Earth's around more than one third of main sequenc...
Super-Earths with orbital periods less than 100 days are extremely abundant around Sun-like stars. I...
International audienceAt least 30% of main sequence stars host planets with sizes of between 1 and 4...