Wednesday, November 13th | Backhill Beer Company
PFAS: Forever Chemicals in our Environment
This event will feature talks examining the detection and fate of poly- and per-fluorinated compounds in our environment. We will also present strategies for remediation of these forever chemicals.
Doors open 5:30 pm and talks will start at 6:00 pm.
All ages welcome. Food will be available for purchase at the event.
This event is SOLD OUT!
Paula Mouser
Paula Mouser is a Professor of Civil and Environmental Engineering at the University of New Hampshire. Between 2018 and 2024, she served as the undergraduate coordinator for UNH’s BS in Environmental Engineering program. From 2020 and 2022 she directed UNH’s Wastewater COVID-19 Monitoring Program working with communities in NH and the greater Northeast to monitor disease spread.
Her research utilizes high resolution analytical chemistry to study the fate of emerging contaminants, including per and polyfluoroalkyl substances (PFAS), pharmaceuticals, and personal care products in engineered, freshwater, and estuarine systems. She also applies genomic tools to understand microbial community and pathogens in engineered and natural systems. She has co-authored more than 50 papers and collaborates broadly across disciplines and stakeholder groups.
Aylin Aykanat
Aylin completed her graduate studies under Professor Katherine Mirica at Dartmouth College. As part of the Mirica group lab, she conducted a line of research seeking to understand structure-property relationships between conductive crystalline materials named Metal-Organic Frameworks (MOFs) and Coordination Networks (CNs). Her dissertation research was an expansion on this topic and involved the design, synthesis, characterization, and performance of conductive coordination networks in chemiresistive sensing. After graduation, she continued her academic career as a Postdoctoral Innovation Scholar (PDIS) at the University of New Hampshire (UNH) under the mentorship of Professors Nathan Oldenhuis. At UNH, her postdoctoral research focuses on the use of DNA as a functional material through the design of supramolecular interactions and topology in hydrogels using DNA intercalators.
At UNH, her research strives to address the challenges in healthcare and environmental remediation of PFAS through innovations in solid-state hybrid materials. Through the design and engineering of self-assembled porous materials, we generate emergent function from strategically selected precursors to target desired structure-properties. Specifically, we generate metal-organic, covalent-organic framework and crystalline coordination networks with tunable structure-properties aimed at addressing generational problems in biomedicine and environmental remediation.