activity
20012023
most citedShort-Term Dynamical Interactions Among Extrasolar Planets

198 citations · 1.7k across the 33 of their papers we have counts for

collaborators

34 papers

astro-ph.EP2023★ 12 cited

Mercury's formation within the Early Instability Scenario

Matthew S. Clement, John E. Chambers, Nathan A. Kaib +2

The inner solar system's modern orbital architecture provides inferences into the epoch of terrestrial planet formation; a ~100 Myr time period of planet growth via collisions with…

astro-ph.EP2021★ 15 cited

Mercury as the relic of Earth and Venus' outward migration

Matthew S. Clement, Sean N. Raymond, John E. Chambers

In spite of substantial advancements in simulating planet formation, the planet Mercury's diminutive mass, isolated orbit, and the absence of planets with shorter orbital periods i…

astro-ph.EP2021

Exploring tidal obliquity variations with SMERCURY-T

Steven M. Kreyche, Jason W. Barnes, Billy L. Quarles +1

We introduce our new code, SMERCURY-T, which is based on existing codes SMERCURY (Lissauer et al. 2012) and Mercury-T (Bolmont et al. 2015). The result is a mixed-variable symplect…

astro-ph.EP2021★ 18 cited

The early instability scenario: Mars' mass explained by Jupiter's orbit

Matthew S. Clement, Nathan A. Kaib, Sean N. Raymond +1

The formation of the solar system's giant planets predated the ultimate epoch of massive impacts that concluded the process of terrestrial planet formation. Following their formati…

astro-ph.EP2021★ 20 cited

Born extra-eccentric: A broad spectrum of primordial configurations of the gas giants that match their present-day orbits

Matthew S. Clement, Rogerio Deienno, Nathan A. Kaib +3

In a recent paper we proposed that the giant planets' primordial orbits may have been eccentric (~0.05), and used a suite of dynamical simulations to show outcomes of the giant pla…

astro-ph.EP2021★ 18 cited

Dynamical avenues for Mercury's origin II: in-situ formation in the inner terrestrial disk

Matthew S. Clement, John E. Chambers

Modern terrestrial planet formation models are highly successful at consistently generating planets with masses and orbits analogous to those of Earth and Venus. In stark contrast…