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Our research capabilities combine laboratory analysis, controlled experimentation and pilot-scale testing to better understand Nanobubbles behaviour and evaluate performance across different applications.
Advanced analytical techniques can be used to study Nanobubbles size, concentration, stability, surface characteristics and gas–liquid interactions. Laboratory and pilot-scale systems provide a practical environment for testing performance under controlled and application-specific conditions.
This combination of scientific analysis and practical testing supports the development and evaluation of Nanobubbles solutions for water treatment, agriculture, aquaculture, industrial processes and other emerging applications.
Our research covers the fundamental characteristics of Nanobubbles as well as their practical use across different water, environmental and industrial applications.
Research areas include Nanobubbles generation, stability, size distribution, surface properties, gas transfer and interactions with water and biological systems.
Our work also extends into water and wastewater treatment, agriculture and horticulture, carbon capture, mineral processing, anaerobic digestion, advanced oxidation, disinfection and industrial process applications.
Research exploring the potential of Nanobubbles for bacterial inactivation and microbial control, with applications relevant to water disinfection and wastewater treatment.
Research investigating the use of Nanobubbles to improve CO₂ absorption and support more efficient carbon capture processes.
Research investigating the use of Nanobubbles to improve CO₂ absorption and support more efficient carbon capture processes.
Research examining surface charge, zeta potential, interfacial behaviour and colloidal stability to better understand how Nanobubbles behave within aqueous systems.
Research exploring Nanobubbles-assisted crystallisation and its potential to improve process control, crystallisation efficiency and resource utilisation.
Research examining Nanobubbles and gas–liquid mass transfer, including their potential to improve oxygen transfer and gas dissolution efficiency.
Investigates spontaneous Power Bubbles nucleation through the salting-out effect, providing insights into gas solubility, bubble formation, and nucleation mechanisms in aqueous systems.
Advanced Power Bubbles Technology for Smarter, Better & More Efficient, Sustainable Outcomes.
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