Project Grant 2524739

Award Date 9/1/25
Completion Date 8/31/27
Dollars Obligated $202K
Awardee
Not listed
Federal Grant Program
47.050
Assistance Type
Project Grant
Place of Performance
Chestnut Hill, Newton, MA, USA
Similar Awards
This Project Grant award, valued at $462,224.00 and provided by the National Science Foundation's (NSF) Geosciences Program (CFDA 47.050), aims to advance the understanding of solar wind-magnetosphere coupling and its impact on space weather. The project, led by the Catholic University of America (CUA), will: Quantify the influence of local magnetosheath parameters versus global solar wind measurements on geomagnetic response, Identify the specific solar wind and magnetosheath parameters that...
This Project Grant award of $400,000 from the National Science Foundation's Geosciences Program (CFDA 47.050) aims to improve the understanding and forecasting of space weather events, particularly geomagnetic storms, which can disrupt critical technological infrastructure such as power grids, satellite communications, and GPS systems. The research project, titled "EMBRACE-AGS-GROWTH: Modeling Space Weather as a Nonlinear Control System," employs innovative mathematical models and...
This $348,127 National Science Foundation (NSF) award under the Geosciences program (CFDA 47.050) supports collaborative research to develop new physics-informed machine learning and stochastic modeling techniques for improving magnetohydrodynamics (MHD) simulations of the interaction between the solar wind and Earth's magnetosphere. The University of California, Los Angeles (UCLA) will lead this 3-year project, which aims to enhance the performance of global magnetosphere MHD models used for...
This $688,588 National Science Foundation project grant supports research at Boston University to advance understanding of solar wind dynamics and their effects. Under the Geosciences program (CFDA 47.050), the funding will be used to investigate how positive and negative changes in solar wind dynamic pressure impact waves, energetic particles, and precipitation in Earth's magnetosphere and ionosphere. Researchers will analyze satellite data from missions such as THEMIS, Van Allen Probes, MMS,...
This National Science Foundation project grant of $478,013 will fund research into numerical modeling of ultra-low-frequency waves and geomagnetically induced currents under the Geosciences program (CFDA 47.050) through November 2025. The awardee, the Regents of the University of Minnesota, will develop computer models to better describe electric currents flowing in space and their effects on ground currents. Researchers will integrate dipole and spherical geometry codes to model wave...
This $212,120 National Science Foundation Project Grant under the Geosciences program (CFDA 47.050) funds research into the impacts of atmospheric waves and geomagnetic disturbances on space weather conditions. Led by the Massachusetts Institute of Technology in collaboration with Clemson University, Embry-Riddle Aeronautical University, New Jersey Institute of Technology, and Virginia Polytechnic Institute and State University from May 1, 2022 to April 30, 2025, the research will advance...
This five-year, $1.286 million Project Grant from the National Science Foundation's Division of Atmospheric and Geospace Sciences will fund research into stormtime magnetosphere-ionosphere coupling and the enhancement of the dawnside auroral electrojet. Under the Geosciences program (CFDA 47.050), which supports basic research in atmospheric, earth, and ocean sciences to expand understanding of the integrated Earth system, the Johns Hopkins University will investigate the ionospheric current and...
The National Science Foundation awarded a $419,448 Project Grant under its Geosciences program (CFDA 47.050) to the University of California, Los Angeles (UCLA) to conduct research on understanding the causes of geomagnetic disturbances (GMDs) and their impact on critical infrastructure. The key objectives are to: Expand the application of the Spherical Elementary Current System (SECS) method to analyze GMDs observed by ground magnetometers in North America and Greenland, in order to estimate...
This three-year, $178,427 project grant from the National Science Foundation's Geosciences program (CFDA 47.050) will fund research exploring the response of the magnetosphere to terrestrial weather. The University Corporation for Atmospheric Research will collaborate with other institutions to investigate how sudden stratospheric warmings impact the spatial and temporal variability of the upper ionosphere and magnetosphere using the Multiscale Atmosphere-Geospace Environment model....
This $449,990 Project Grant award from the National Science Foundation's Geosciences program (CFDA 47.050) will fund collaborative research at the University of Michigan to investigate the dynamics of fast plasma flows within the Earth's nightside magnetosphere and their effects on the upper atmosphere. The research aims to deepen understanding of the magnetosphere-ionosphere-thermosphere coupling processes using a combination of simulation models and multi-instrument observational data. Key...

This $202,000 Project Grant award from the National Science Foundation's Geosciences Program (CFDA 47.050) will fund a 2-year postdoctoral research project to quantify the effects of uncertain solar wind inputs on the Multiscale Atmosphere-Geospace Environment (MAGE) geospace model. The project aims to 1) quantify the sensitivity of the MAGE model to input uncertainty, 2) identify differences between model outputs and observed magnetospheric state that cannot be explained by uncertain boundary conditions, and 3) develop an extensible ensemble modeling framework. This will be accomplished by generating perturbed model inputs using the Probabilistic Regressor for Input to the Magnetosphere Estimation (PRIME) algorithm to propagate solar wind data from the L1 Lagrange point to Earth and create statistically consistent ensembles of model inputs. The resulting ensemble simulations will be compared to real geomagnetic activity and environmental measurements to determine the impact of solar wind input uncertainty on the MAGE model. This award aims to improve understanding of the effects of space weather on national infrastructure and guide future model enhancements.

Generated 8/5/25, 6:32 AM