UCO/Lick Observatory / University of California / /
IndustryTerm
gas Σg / gas drag / gas flow / gas accretion / gas molecules / narrow gas feeding zone / grid systems / gas surface density / gas mass / gas flow limits / gas pressure gradient / accrete gas / constant maximum gas accretion rate / instantaneous gas loss rate / gas accretion rate / gas density / Gas velocities / thermal energy / runaway gas accretion / linear gas surface density drop-off rate / thermal pressure pushing gas / gas loss rate / gas proceeds / gas pressure gradients / energy / energy transport / bound material gas / regulated gas accretion / gas rate / gas runaway / surface gas density decreases / gas feeding zone / rapid gas flow / slow gas accretion / unbound protoplanetary disk gas flowing / sufficient energy / distant gas / overall gas removal / interstellar gas / gas accretion rates / gas accretion zone / accrete additional gas / /
NaturalFeature
Growth Hill / /
Organization
Department of Astronomy and Astrophysics / Space Science and Astrobiology Division / University of California / Santa Cruz / Gennaro D’Angelo2 NASA Ames Research Center / African Union / National Aeronautics and Space Administration / /
Person
Jack J. Lissauer / Peter Bodenheimer / Angelo Models / Kary / / /
January 3, 2014 Preprint typeset using LATEX style emulateapj v[removed]MODELS OF JUPITER’S GROWTH INCORPORATING THERMAL AND HYDRODYNAMIC CONSTRAINTS† Jack J. Lissauer, Olenka Hubickyj1 , Gennaro D’Angelo2 NASA A