Multidisciplinary Research and Workforce Development on Fate and Transport of PFAS
Supported By: DOE
Funding: $3,520,000
Project overview: The overarching goal of this project is to create and foster a sustainable, diverse, and inclusive DOE-EM workforce STEM pipeline while improving the PFAS R&D platform at minority institutions and promoting DOE’s PFAS missions.
To achieve the research goal, we conduct experimental and computational research to understand PFAS fate and transport phenomena during remediation and post-attenuation under dissimilar geological and climate-impacted conditions. For the improvement of workforce development, we provide the participants with unique opportunities of professional development.
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Climate impact on resiliency and safety of in-situ remediation for recalcitrant contaminants
Supported By: Department of Energy
Funding: $350,000
Project overview: Climate change and extreme weather events make it more difficult to maintain the stability and reliability of in situ remediation systems, as well as to forecast their future performance, evolution, and resiliency under catastrophic weather attacks.
In response, we conduct research and education/training on climate impact on resiliency and safety of in-situ remediation for recalcitrant contaminants. Specifically, we evaluate the performance of soil vapor extraction under flooding and drought conditions and develop micro-gas sensors to monitor VOCs in situ.
Professional Services and Studies on Green and Technology-Enhanced Infrastructure Management and Firefighter’s Health
Supported By: Hays County, Texas
Funding: $167,454
Project overview: This project intends to provide design, monitoring, and professional services to the construction and maintenance of a state-of-the-art fire station in eastern Hays County, TX. More importantly, this project helps to build a fire station that minimizes environmental impacts, including for Plum Creek, a tributary of the San Marcos River. In addition, the project creates new opportunities to monitor firefighters’ health and safety concerning their exposure to PFAS (per- and polyfluoroalkyl substances).
Biologically Active Pervious Structure for Stormwater Management
Supported By: NSF
Funding: $50,000
Project overview: This project aims to develop and commercialize an innovative Biologically Active Pervious Structure (BAPS) to address runoff-related issues that significantly impact human health, soil quality, and the environment. The multifunctional biochar integrated into BAPS captures and treats a wide range of pollutants in stormwater runoff through physicochemical and microbiological mechanisms.