Research (Implementation) Award
A major component of the NASA WV EPSCoR is competitively won cooperative agreements with NASA that are designed to strengthen and support activities that are beneficial to the research capabilities of the state as well as advancing NASA’s research priorities. These are three-year competitive grants for up to $750,000 of federal funds per winning project, supplemented with cost sharing from the researchers’ home institution.
The following is a brief description of the success of this program in WV:
|Award Date||Description||NASA||Cost Share||Total|
|Oct-2007||Marshall University, Eric Blough-Pharmaceutical Science: Molecular and Cellular Mechanisms Underlying Skeletal Muscle and Cardiovascular Adaptation to Simulated Microgravity||$749,521||$315,862||$1,065,383|
|Oct-2007||WVU, Marcello Napolitano-Mechanical Engineering: Design, Simulation Validation and Flight Testing of Adaptive Fault Tolerant Flight Control Systems||$750,000||$750,000||$1,500,000|
|Nov-2009||WVU, Wade Huebsch and D. Cairns-Mechanical Engineering: Control of Steady and Unsteady Separation Through Dynamic Roughness||$750,000||$750,000||$1,500,000|
|Oct-2010||WVU, Earl Scime and Amy Keesee- Physics and Astronomy: Remote Thermal Ion Measurements and Integrated Magnetospheric Modeling||$748,994||$376,292||$1,125,286|
|Oct-2010||WVU, John Kuhlman-Mechanical Engineering; Donald Gray- Civil Engineering : Spray Cooling Heat Transfer Mechanisms||$750,000||$375,013||$1,125,013|
|Jul-2011||Marshall University, Thomas Wilson-Department of Physics: Coherent Terahertz Acoustic Phonons: A Novel Diagnostic for Erosion in Hall Thruster Discharge Chamber Walls||$748,685||$374,343||$1,123,028|
|Sep-2013||Marshall University, Miazong Wu-School of Pharmacy : Mechanical Unloading and Irradiation-Induced Musculoskeletal Loss and Dysfunction||$750,000||$375,225||$1,125,225|
|Jun-2016||WVU, John Kuhlman-Mechanical and Aerospace Engineering: Improving Solder Joints Formed in Micro Gravity Using Magnetic Solder and a Local Magnetic Body Force||$211,822||$119,247||$331,069|
|Sep-2017||WVU, Yu Gu, Jason Gross and Victor Fragoso-Mechanical and Aerospace Engineering: Fast Traversing Autonomous Rover for Mars Sample Collection||$750,000||$375,000||$1,125,000|
|May-2019||WVU, A. Kobelski, E. Scime, F. Fang, P. Cassak and W. Tu- Physics and Astronomy: From Large to Small Scales and Back: Integrating Observations, Modeling, and Laboratory Experiments of Heliophysics||$750,000||$465,339||$1,215,339|
The following is a brief description of the Research projects that are currently underway in West Virginia.
From Large to Small Scales and Back: Integrating Observations, Modeling, and Laboratory Experiments for Heliophysics: Led by Dr. Weichao Tu, West Virginia University (WVU), and his team, including Dr. Paul Cassack, Dr. Fang Fang, Dr. Adam Kobelski, and Dr. Earl Scime, the goal of the project is to understand the cause of solar activity (how it’s stored, transported, and released) and how Earth’s magnetic environment responds to those events. The project will create a strong environment for training and recruiting students in space plasma physics and will support the burgeoning space-related capabilities in West Virginia.
Fast Traversing Autonomous Rover for Mars Sample Collection:
Led by Dr. Yu Gu, WVU, and his team, including Dr. Jason Gross and Dr. Victor Fragoso, the overall technical objective of this project is to develop the technology needed for autonomous fast traverse on a Mars-analog terrain. The project is performed with a collaboration between WVU and the NASA Jet Propulsion Laboratory (JPL). During the project, a series of proof of concept rover demonstrations will be performed. The lessons learned through these experiments will support the Mars Sample Return (MSR) mission formulation studies currently being conducted by NASA. Through this effort, technologies, infrastructure, and expertise closely related to planetary rover missions will be developed at WVU. The project thus far has provided training to three undergraduates and twelve graduate students at WVU.
3D Printed Titanium Dioxide Foams under Extreme Environment Exposure at Low-Earth Orbit: Dr. Kostas Sierros, WVU, is partnering with Dr. John Kuhlman, WVU and researchers at University of Rome Tor Vergata to conduct research and technology development aboard the International Space Station. This project has significantly helped to develop further capabilities for 3D printable metal oxide foams. To date, we have disseminated initial project results to the scientific community through four oral presentations in international, national, and local scientific symposia, one peer-reviewed journal publication, and one provisional patent application. It is worth noting that the Ph.D. student, Ms. Pecora, was the speaker of two for the oral presentations. She is featured in the image on the right.