Our paper on the energy budget of giant impacts is on the cover and all over the word cloud for the issue: Read more: The energy budgets of giant impacts Carter, P. J., S. J. Lock, S. T. Stewart, J. Geophysical Research: Planets 125, e2019JE006042, doi:10.1029/2019JE006042, 2019.
Sarah will be the Grand Marshal for the 105th Picnic Day at UC Davis. Adventure Awaits!
The Stewart Group celebrating Sarah's MacArthur Fellowship.
Some thoughts on the theme of World Space Week. I love this graphic by Photon Illustration. https://americangeophysicalunion.tumblr.com/post/178727321633/photo-courtesy-of-sarah-t-stewart-uc-davis-space
Dr. Simon Lock has completed his dissertation on "The formation, structure and evolution of terrestrial planets." He is now a postdoctoral researcher at Caltech.
We are pleased to announce the launch of CLEVER Planets (the Cycling of Life-Essential Volatile Elements on Rocky Planets), a NASA NExSS team investigating the necessary chemistry for a rocky planet to host life. UC Davis announcement: How Do you Make an Earth-Like Planet?
We present a new model for lunar accretion with a terrestrial synestia. The Moon is depleted in volatile elements compared to Earth. Our model explains the pattern and magnitude of depletion of these elements. The key is understanding the pressures and temperatures of the rock vapor environment around the growing Moon. More information about our [...]
Welcome to Bethany Chidester and Megan Duncan!
The Origins Group finds many reasons to throw a party. The latest reason was making planet cakes! We made Jupiter and Earth with Pangea. (Image gallery -- click on the cakes)
Graduate student Simon Lock and Sarah Stewart define and explain a new type of planetary object. A synestia is formed by a giant impact. Synestias are an important stage of terrestrial planet formation, leading to mixing within the structure and the formation of moons. Our work is published today in the Journal of Geophysical Research Planets. [...]
