Assessing the formation and the properties of high-valent metal species.

-Understanding the formation chemistry of various high-valent metal species

-Establishing the relationship between chelation of ligand compounds with the metal centre and the reactivity of corresponding high-valent metal species with the chelated compounds or other substrates in bulk

-Developing next-generation advanced oxidation process utilising high-valent metal species that can minimise unnecessary energy and chemical consumption.

Electrochemical oxidation of recalcitrant perfluorinated compounds (e.g. PFOS, PFOA) supported by electrochemically induced high valent metal species

 

- Enhanced removal of PFOS and PFOA supported by electrochemically induced high valent metal species (e.g. Fe, Ni, Cu…) using RuO2 as an anode in the water

- Study the mechanism of the enhancement of the removal of perfluorinated compounds

Electrochemical Degradation and Resource Recovery of Residual Pharmaceuticals

Development of hybrid carbon-based platform materials for water treatment

Electrochemical removal of PFAS in the presence of organic compound

Development of eco-friendly adsorbent for resource cycle

Carbonaceous catalytic ozonation

- Measurement of hydroxyl radical generation in activated carbon catalytic ozone system.

- Estimate the decomposition of micropollutants via activated carbon catalytic ozone system.

Study of electrochemical N2 reduction for ammonia production

Study of electrochemical removal of nitrogen compounds in water treatment plant

Development of multifunctional membrane systems for water treatment and air purification.

Electrochemical Resource Recycling from Industrial Wastewater

Recovery of Valuable Metals from LIB Cathode Waste

Electrochemical Resource Recovery from Spent Batteries

Redox-Flow Electrodialytic Bicarbonate Recovery for Continuous CO₂ Capture