This research investigates how the shape, size, and surface chemistry of carbon nanomaterials influence their ability to remove contaminants from complex wastewater. By systematically testing nanomaterial variations against pollutants such as microplastics and petroleum derivatives, it aims to establish design rules that enable more effective, real-world water treatment technologies.

This research investigates how electrolyte chemistry influences battery performance through the formation of the solid electrolyte interface (SEI). By developing fluoride-rich electrolytes for lithium metal batteries, the work improves battery stability and efficiency, advancing renewable energy storage, electric transportation, chemical manufacturing, and future energy technologies beyond conventional lithium-ion systems.

This research develops water-free electrolyte systems for electrochemical reactions and energy technologies. By replacing water with more stable solvents, the work enables improved batteries, renewable energy storage, and more efficient chemical manufacturing. Applications include long-range electric vehicles, planetary exploration systems, and lower-cost pharmaceutical production using recyclable chemical reagents.

This research develops biodegradable “living” water filters grown from kombucha cellulose membranes. Unlike conventional plastic filters, these biofilters can self-defend against harmful microbes and self-repair when damaged. The work aims to create affordable, sustainable, and effective water filtration systems that reduce plastic waste while improving access to clean drinking water.

This research tackles removal of Bisphenol A from water using light-activated materials. By combining titania with a silica shell and a responsive polymer “gate,” the system adapts to changing conditions like pH and temperature, improving pollutant breakdown under visible light and enabling smarter, more efficient water purification.

This research explores biofiltration as a sustainable alternative to chemical water treatment. By supplying bacteria with nutrients like nitrogen and phosphorus, it improves removal of harmful organic matter. Results show a 20% efficiency increase, reducing chemical use and risks, and offering a cost-effective solution for safe drinking water worldwide.

This research tackles harmful cyanobacteria blooms that threaten drinking water. Using ceramic membrane filtration, it prevents toxin release by retaining intact cells. Improved cleaning methods with eco-friendly chemicals enhance membrane efficiency and longevity. The work aims to ensure safe water treatment as climate change increases the frequency and severity of algal blooms.