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Sean C. Solomon

Researcher at Lamont–Doherty Earth Observatory

Publications -  764
Citations -  43261

Sean C. Solomon is an academic researcher from Lamont–Doherty Earth Observatory. The author has contributed to research in topics: Mercury (element) & Lithosphere. The author has an hindex of 106, co-authored 764 publications receiving 39206 citations. Previous affiliations of Sean C. Solomon include Massachusetts Institute of Technology & Carnegie Institution for Science.

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MESSENGER observations of transient bursts of energetic electrons in Mercury's magnetosphere.

TL;DR: Angular distributions of the electrons about the magnetic field suggest that they do not execute complete drift paths around the planet, demonstrating that Mercury’s weak magnetic field does not support Van Allen–type radiation belts, unlike all other planets in the solar system with internal magnetic fields.
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Shear wave splitting across the Iceland hot spot: Results from the ICEMELT experiment

TL;DR: In this article, the splitting of teleseismic shear waves (SKS, SKKS, and PKS) recorded by the ICEMELT broadband seismometer network in Iceland was investigated.
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Elevation of the olivine-spinel transition in subducted lithosphere: Seismic evidence

TL;DR: The top of the olivine-spinel phase change in subducted oceanic lithosphere can be located by the travel times of seismic waves which have propagated through the slab P-wave travel time residuals from deep earthquakes in the Tonga island are observed at Australian seismic stations are grouped according to the depth of the earthquake as mentioned in this paper.
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Apparent stress and stress drop for intraplate earthquakes and tectonic stress in the plates

TL;DR: In this article, the magnitude of shear stress in the lithosphere is bounded from below by the apparent stress and stress drop during intra-plate earthquakes and there is no systematic difference in either apparent stress or stress drop between these intraplate events and typical plate boundary earthquakes, consistent with the inference from current models of plate tectonic driving forces that regional stress differences in the plates are typically on the order of 100 bars.