The Water Treatment Technology thrust investigated the chemical and biological processes that govern the formation, fate, and removal of contaminants in drinking water and wastewater treatment systems. Our foundational contributions spanned advanced oxidation processes (AOP), chlorination byproduct kinetics, UV photolysis, and ozone-based treatment, with applications to municipal drinking water utilities.
This work established the lab's expertise in reaction kinetics, analytical chemistry, and bench-to-pilot-scale experimentation — a foundation that continues to inform our current separations and sensing research.
Systematic characterization of N-nitrosodimethylamine (NDMA) and haloacetamide formation during chloramination of secondary effluent, as a function of DOM composition and operational conditions.
Bench and pilot-scale evaluation of UV/H₂O₂ AOP for pharmaceutical and personal care product removal, including quantum yield determination and scavenger effects.
Pilot-scale demonstration of ozone-biofiltration sequences for removal of geosmin, MIB, and cyanotoxins in drinking water treatment, with lifecycle cost analysis.
Statistical modeling of coagulant dose optimization as a function of source water NOM fractionation, turbidity, and seasonal variability.