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Paul Bremner

Assistant Branch Chief

Affiliation: NASA Marshall Space Flight Center

Email: paul.m.bremner@nasa.gov

Phone: (256) xxx-xxxx

Dr. Paul Bremner is a planetary scientist at NASA’s Marshall Space Flight Center. Originally from Florida, Dr. Bremner earned his AA from Daytona State College in 2006, BS from the University of Central Florida in 2009, PhD from the University of Florida in 2016, and completed a post-doc at the University of Florida in 2019. Dr. Bremner joined the planetary science group at Marshall Space Flight Center in 2021 after 2 years as a hydrogeologic modeler at the St. Johns River Water Management District in Florida, and prior to that, a 4-year stint as an aircraft mechanic for the US Air Force.

Research Area

  • Planetary Seismology: Seismology of Earth, Moon, and other rocky planets (or planetoids) in the solar system.
  • Geodynamic Simulations: Geodynamic simulations of convective heat and material transport in planetary Dr.
  • Interdisciplinary Planetary Science: Multidisciplinary collaborations to combine geophysics, geochemistry/petrology, and mineral physics to examine properties of planetary interiors.
  • Hydrogeological Modeling: Simulations of past and present surface and groundwater flow.

Education

Associate of Arts
Daytona State College, 2006

  • Associate of Arts
    Daytona State College, 2006
  • Bachelor of Science, Physics
    University of Central Florida, 2009
  • PhD
    University of Florida, 2016
  • Post-Doctoral Researcher
    University of Florida, 2016-2019

Professional Experience

  • Planetary Seismology: Seismology of Earth, Moon, and other rocky planets (or planetoids) in the solar system.
  • Geodynamic Simulations: Geodynamic simulations of convective heat and material transport in planetary Dr.
  • Interdisciplinary Planetary Science: Multidisciplinary collaborations to combine geophysics, geochemistry/petrology, and mineral physics to examine properties of planetary interiors.
  • Hydrogeological Modeling: Simulations of past and present surface and groundwater flow.