1) Membrane fouling control
Fouling is a significant challenge in membrane processes, affecting the efficiency and longevity of membranes used in water treatment, desalination, and various industrial applications. Our research focuses on developing innovative strategies to mitigate fouling, enhance membrane performance, and extend operational lifespan. We explore both physical and chemical methods, including surface modifications, anti-fouling coatings, and dynamic cleaning techniques. By advancing fouling control technologies, we aim to improve the sustainability and cost-effectiveness of membrane-based systems, contributing to cleaner water and more efficient industrial processes.
2) RO concentrate treatment
Reverse osmosis (RO) is widely used for water desalination and wastewater reclamation, but it produces a concentrated waste stream that poses environmental and disposal challenges. Our research is dedicated to developing sustainable and cost-effective solutions for the treatment and management of RO concentrate. We explore advanced techniques such as membrane-based separations, chemical precipitation, and resource recovery methods to minimize the environmental impact and enhance the efficiency of RO systems. By addressing the complexities of concentrate disposal, we aim to promote more sustainable water treatment practices and reduce the ecological footprint of desalination processes.
3) Energy-efficient water treatment systems
Energy efficiency is a critical factor in modern water treatment technologies, as the growing demand for clean water requires sustainable solutions. Our research focuses on designing and optimizing energy-efficient water treatment systems that reduce operational costs and minimize environmental impact. We investigate cutting-edge approaches, such as low-energy membrane technologies, energy and resource recovery techniques, and integration with renewable energy sources. By advancing energy-efficient solutions, we aim to develop water treatment systems that are both environmentally friendly and economically viable, contributing to a more sustainable future in water resource management.