SHINE: Understanding the Three-Part Structure of Coronal Mass Ejections Combining Data Analyses and Numerical Simulations

Information

  • NSF Award
  • 2301382
Owner
  • Award Id
    2301382
  • Award Effective Date
    4/1/2023 - a year ago
  • Award Expiration Date
    3/31/2026 - a year from now
  • Award Amount
    $ 337,583.00
  • Award Instrument
    Standard Grant

SHINE: Understanding the Three-Part Structure of Coronal Mass Ejections Combining Data Analyses and Numerical Simulations

Coronal mass ejections (CMEs) are powerful events that send plasma from the Sun throughout the solar system. They create space weather at Earth, which impacts human technology, particularly in space. This project will improve our understanding of the structure of CMEs through numerical simulations and analysis of observations. The work supports an early career scientist. The research team will participate in public outreach efforts geared towards the general public, students, and teachers.<br/><br/>The project is a comprehensive analysis of the three-part structure of CMEs. It will combine multiple observations from NSF, NASA, and NOAA and numerical simulations. Three important science questions are addressed in order to better understand the CME structure and gain a general knowledge of the physical properties of the CME substructures: (1.) What is the CME structure observed in white-light coronagraphic images and where are the magnetic flux rope (MFR) and filament observed in coronagraphs? (a) In white-light coronagraphic images, does the bright core consist of the filament material, MFR structure, or both, and where is the bright core within the whole CME eruptive structure? (b) Are the observations of the filament and MFR in the low corona in EUV images consistent with the bright core and/or dark cavity in the middle and high corona in white-light images? (2.) Where is the CME trailing edge? Which signatures can be best used to identify the CME trailing edge in remote and in-situ observations and where is the CME trailing edge in white-light coronagraphic images? (3.) Can a consistent CME structure be identified in remote observation and in in-situ measurements? (a) Are the kinematics and evolution of the CME substructures (including the trailing edge) observed remotely consistent with those measured in situ? (b) Can the in-situ measurements be used to track back the CME substructures to the corona?<br/><br/>This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

  • Program Officer
    Lisa Winterlwinter@nsf.gov7032928519
  • Min Amd Letter Date
    3/30/2023 - a year ago
  • Max Amd Letter Date
    3/30/2023 - a year ago
  • ARRA Amount

Institutions

  • Name
    University of New Hampshire
  • City
    DURHAM
  • State
    NH
  • Country
    United States
  • Address
    51 COLLEGE RD
  • Postal Code
    038242620
  • Phone Number
    6038622172

Investigators

  • First Name
    Noe
  • Last Name
    Lugaz
  • Email Address
    nlugaz@guero.sr.unh.edu
  • Start Date
    3/30/2023 12:00:00 AM
  • First Name
    Bin
  • Last Name
    Zhuang
  • Email Address
    bin.zhuang@unh.edu
  • Start Date
    3/30/2023 12:00:00 AM

Program Element

  • Text
    SOLAR-TERRESTRIAL
  • Code
    1523

Program Reference

  • Text
    EXP PROG TO STIM COMP RES
  • Code
    9150