Emerging Contaminants
Advanced characterization and transformation pathways for PFAS, halogenated organics, and other persistent pollutants.
Hello, I am
I advance the discovery and transformation of emerging contaminants to strengthen the resilience of water and infrastructure systems affected by wildfires. My research focuses on redox-mediated degradation pathways, advanced analytical methods, and treatment technologies for climate-driven disturbances.

About
As an environmental engineer, my research advances the discovery, characterization, and transformation of emerging contaminants to strengthen the resilience of water and infrastructure systems affected by wildfires. I focus on redox-mediated degradation pathways of persistent pollutants, including PFAS and halogenated organics.
My current work integrates combustion experiments with post-fire field studies to identify and track disinfection byproduct precursors and other emissions across complex environmental matrices. Ultimately, my goal is to inform mitigation strategies and support robust treatment technologies for climate-driven disturbances.
Research areas
Advanced characterization and transformation pathways for PFAS, halogenated organics, and other persistent pollutants.
High-resolution analytical methods including targeted and non-targeted approaches for environmental analysis.
Development of strategies and technologies for treating wildfire-impacted water systems and emerging contaminants.
Investigation of redox-active species and their roles in pollutant degradation and environmental remediation.
Teaching
My teaching is shaped by my academic and research trajectory in environmental engineering, analytical chemistry, and applied water systems work. I draw on my PhD training at the University of Nevada, Reno and postdoctoral research at Colorado State University to connect fundamental concepts with current challenges in water treatment and contaminant management.
I teach and mentor with a focus on environmental chemistry, emerging contaminant analysis, water quality, and rigorous scientific inquiry. My goal is to help students build analytical confidence while understanding how environmental research informs resilient engineering solutions for real-world systems.
Research Thrust
Tracking DBP precursor and PFAS formation in fire-affected soils and drinking water sources, including a field study of the 2025 Eaton Fire in Los Angeles.
Quantifying PAH and PFAS emissions from controlled burns of structural and household materials using ultra-high-resolution mass spectrometry.
Reductive dehalogenation of persistent pollutants, including 6PPD-quinone from rubberized asphalt, via semiquinone moieties in aqueous biochar.
Work Experience
Investigating leaching behavior of DBP precursors from wildland-urban interface fire residues and their transport into water systems at University of Nevada Reno.
Developed and optimized extraction methods for chemical analysis of emissions from burning structural materials at Colorado State University.
Explored redox-mediated degradation of pollutants by aqueous-phase biochar at University of Nevada Reno.
Honors & Awards
Gordon Research Conference
Soil Systems, Vol. 9
Environmental Science & Technology, Vol. 57
Nevada Water Environment Association
University of Nevada, Reno
American Chemical Society
New York University
Publications
Explore my complete publication record with 15 peer-reviewed articles spanning water systems, emerging contaminants, and environmental engineering.
Contact