Project Grant 2229065
- This three-year, $435,681 Project Grant from the National Science Foundation's Geosciences program (CFDA 47.050) supports research into mini-filament eruptions and their relationship to small-scale magnetic flux ropes in the solar wind. The New Jersey Institute of Technology will investigate the kinematic, thermal, and magnetic properties of mini-filaments and any connections between their eruptions and detected small-scale flux ropes in the solar wind. Researchers will analyze high-resolution...
- This Project Grant award of $578,828 from the National Science Foundation's (NSF) Division of Atmospheric and Geospace Sciences was provided to Predictive Science Incorporated, a San Diego-based research and analysis company, for the project "SHINE: How Does Surface Flux Evolution Determine the Structure and Dynamics of the Solar Corona and Inner Heliosphere?". The project, running from May 1, 2025 through April 30, 2028, aims to better understand the connection between the solar...
- This three-year project grant from the National Science Foundation's Division of Atmospheric and Geospace Sciences, under the Geosciences program (CFDA 47.050), provides $134,443 to support collaborative research titled "SHINE: Where are Particles Accelerated in Coronal Jets?". The research aims to enhance understanding of how energy is produced by the Sun and accelerated in interplanetary space by investigating where electrons are accelerated in coronal jets originating near solar...
- This $468,460 Project Grant was awarded by the National Science Foundation's Geosciences Program (CFDA 47.050) to the University of Texas at Austin on May 1, 2024. The award will support the "SHINE: Origin and Evolution of Compressible Fluctuations in the Solar Wind and their Role in Solar Wind Heating and Acceleration" research project, which aims to investigate the impact of compressible fluctuations and wave-particle interactions on solar wind dynamics and thermal properties. Key...
- This National Science Foundation Project Grant of $508,504 provides funding from November 1, 2022 to October 31, 2025 under the Geosciences program (CFDA 47.050) to advance understanding of coronal mass ejections (CMEs) from the Sun. Led by underrepresented groups in STEM, the award supports physics-based and statistical studies to quantify the structure and evolution of magnetic flux ropes from the solar photosphere to the inner heliosphere. Researchers will characterize CME flux ropes using...
- This $568,185 Project Grant awarded by the National Science Foundation's Geosciences Program (CFDA 47.050) will support research to study the origin and evolution of jets emanating from coronal holes on the Sun. The project, titled "SHINE: Statistical Birth Conditions of Coronal Hole Jets Using the Legacy Dunn Solar Telescope," will use measurements from the Dunn Solar Telescope in New Mexico and other observatories to trace the properties of these jets across different atmospheric...
- This $305,598 Project Grant from the National Science Foundation Division of Astronomical Sciences, under the Mathematical and Physical Sciences program (CFDA 47.049), will fund collaborative research between the New Jersey Institute of Technology and the University of Alabama, Huntsville to study solar flare-producing active regions. The researchers will leverage high-resolution observations from the Daniel K. Inouye Solar Telescope and other ground-based and space-based telescopes, along...
- The National Science Foundation's Geosciences Program (CFDA 47.050) awarded a $588,121 project grant to the University of Delaware to study plasma turbulence at the boundary between the solar wind and Earth's magnetosphere. The research, titled "SHINE: Evolution of the Turbulent Solar Wind Across the Terrestrial Bow Shock," aims to enhance understanding of space weather, planetary magnetospheres, and astrophysical systems by analyzing the dynamic interactions between the solar wind and...
- This $300,519 National Science Foundation project grant supports research and outreach activities to study the parametric decay instability mechanism's potential role in solar corona heating. Funded under the Geosciences program, which supports basic research to improve understanding of Earth's integrated systems, the two-year award to New Mexico Consortium will analyze observational data and conduct numerical simulations. Postdoctoral researchers and undergraduate students at Columbia...
- This National Science Foundation (NSF) Geosciences Program (CFDA 47.050) Project Grant award totaling $172,015 will support collaborative research led by the New Jersey Institute of Technology (NJIT) to investigate the role of supra-arcade downflows (SADs) in energy transfer during solar flares. The research aims to obtain a more comprehensive understanding of energy release in the above-the-loop-top (ALT) regions of solar flares, which are critical to comprehending these highly energetic...
COLLABORATIVE RESEARCH: SHINE: INVESTIGATION OF MINI-FILAMENT ERUPTIONS AND THEIR RELATIONSHIP WITH SMALL SCALE MAGNETIC FLUX ROPES IN SOLAR WIND -IT IS WELL KNOWN THAT MAGNETIC FLUX ROPES (MFRS) EXIST UBIQUITOUSLY IN THE SOLAR SURFACE AND IN THE INTERPLANETARY SPACE. MFRS ARE GENERALLY DEFINED AS A BUNDLE OF MAGNETIC FIELDS THAT ARE TWISTED ABOUT EACH OTHER AND WRAP AROUND A COMMON AXIS. THE LARGE SCALE MFRS ARE OFTEN ASSOCIATED WITH SOLAR FILAMENT ERUPTIONS, SUBSEQUENT PROPAGATION OF CORONAL MASS EJECTIONS (CMES) IN SOLAR WIND, AND FURTHERMORE, THE INTERPLANETARY CMES (ICMS) TOWARDS EARTH. IN RECENT YEARS, SMALL-SCALE MFRS (SMFRS) IN BOTH SOLAR SURFACE AND SOLAR WIND ARE RECEIVING SIGNIFICANT ATTENTION. INITIAL EVIDENCES SHOW THAT THEY ARE NUMEROUS AND UBIQUITOUS FROM HIGH RESOLUTION OBSERVATIONS FROM THE NSF-FUNDED 1.6M GOODE SOLAR TELESCOPE (GST) OF BIG BEAR SOLAR OBSERVATORY (BBSO) AND FROM NASA?S PARKER SOLAR PROBE (PSP). THIS PROJECT ADDRESSES THE SOLAR, HELIOSPHERIC, AND INTERPLANETARY ENVIRONMENT (SHINE) GOAL OF LINKING THE GENERATION AND PROPAGATION OF SMFRS FROM THE SOLAR SURFACE TO THE SOLAR WIND. TWO FEMALE EARLY CAREER RESEARCHERS WILL BE SUPPORTED, AS WELL AS UNDERGRADUATE, GRADUATE, AND HIGH SCHOOL STUDENTS. THE TEAM WILL MENTOR STUDENTS AT THE NSF REU SITES OF NEW JERSEY INSTITUTE OF TECHNOLOGY (NJIT) AND THE UNIVERSITY OF ALABAMA HUNTSVILLE (UAH). USING HIGH-RESOLUTION, HIGH-POLARIMETRIC AND SPECTROSCOPIC DATA FROM GST, IN-SITU OBSERVATIONS FROM PSP AS WELL AS OTHER GROUND-BASED AND SPACE OBSERVATIONS, NJIT AND UAH JOIN AN EFFORT TO CARRY OUT COMPREHENSIVE CASE AND STATISTICAL STUDIES OF SMFRS IN SOLAR SURFACE AND SOLAR WIND. THE TEAM WILL INVESTIGATE THE KINEMATIC, THERMAL AND MAGNETIC PROPERTIES OF THEM, AS WELL AS POSSIBLE PHOTOSPHERIC MAGNETIC FIELD EVOLUTION ASSOCIATED WITH ERUPTION OF MINI-FILAMENTS. IN ADDITION, THEY WILL FIND THE CONNECTION BETWEEN SOLAR MINI-FILAMENT ERUPTIONS AND DETECTED SMFRS IN SOLAR WIND. THE PROJECT USES DATA FROM NSF FUNDED GROUND-BASED OBSERVATIONS OF BBSO. COMBINING THE MOST ADVANCED DATA FROM GST/BBSO AND PSP, THE TEAM WILL DISCLOSE DETAILED PROPERTIES OF SMFRS AND ADDRESS THE FOLLOWING KEY SCIENCE QUESTIONS. (1) WHAT ARE THE DYNAMIC PROPERTIES OF MINI-FILAMENT ERUPTIONS (VELOCITY, TEMPERATURE, DENSITY, ENERGY)? (2) WHAT IS THE PHOTOSPHERIC MAGNETIC STRUCTURE AND EVOLUTION ASSOCIATED WITH MINI-FILAMENT ERUPTIONS? (3) WHAT ARE THE STATISTICAL DISTRIBUTIONS OF MINI-FILAMENT ERUPTION IN CORONAL HOLES AND REGULAR QUIET SUN? (4) STATISTICALLY, IS THERE A POSSIBLE CONNECTION BETWEEN MINI-FILAMENT ERUPTIONS AND THE SMFRS IN THE SOLAR WIND? THESE QUESTIONS ARE OF IMPORTANCE FROM TWO ASPECTS: (1) TO DISCLOSE THE BASIC PLASMA PROPERTIES OF SMFRS AND (2) TO ADVANCE UNDERSTANDING OF THE FORMATION OF TRANSIENTS IN THE SOLAR WIND. 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.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $0 | 3/4/26 | ||
| Not listed | $156.3k | 7/27/22 |