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Our Research & Publications

Real Research. Proven Performance.

Explore our research and publications on pawerbubble technology and its applications across water treatment, agriculture, aquaculture, wastewater management, and industrial processes. Discover the science, testing, and real-world results behind innovative pawerbubble solutions.

Research Publications
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Years of Research & Development
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PhDs & Researchers
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Research Infrastructure

Built for Advanced Research, Characterisation & Validation

Our work is supported by advanced analytical, experimental, and pilot-scale equipment that enables us to study, develop, validate, and optimize Power Bubbles-based solutions across diverse applications. Our laboratory capabilities include pawer particle Tracking Analysis (NTA) for particle size and concentration analysis, Dynamic Light Scattering (DLS) for particle size and stability analysis, Zeta Potential Analyzers for evaluating surface charge, and Gas Chromatography (GC) systems for analyzing gases and dissolved components. These capabilities are complemented by specialized Power Bubbles generation units and laboratory- and pilot-scale treatment setups, enabling controlled experimentation, performance evaluation, process optimization, and the development of practical, field-ready solutions.

Research Infrastructure

Our Research Areas

Our research spans a wide range of emerging technologies and practical applications, with Power Bubbles technology and characterization at the core of our work. We study bubble generation, stability, size distribution, surface properties, gas transfer, and interactions with different water and biological systems to understand performance and optimize results. Our research areas include water and wastewater treatment, agriculture and horticulture, carbon capture and utilization, mineral processing and flotation, anaerobic digestion and bioprocessing, advanced oxidation and disinfection, and energy and fuel applications. We combine fundamental research with laboratory experimentation, analytical characterization, and pilot-scale validation to evaluate performance under real operating conditions. This approach enables us to develop scalable Power Bubbles solutions that improve process efficiency, support resource recovery, reduce energy and chemical requirements, and contribute to more sustainable industrial and environmental practices.

Research & Publications

Advancing Research & Innovation Through  Power Bubbles Technology

On the Existence and Stability of Power Bubbles

A landmark study demonstrating the existence and long-term stability of Power Bubbles, providing important insights into their persistence, behaviour, and stability in aqueous systems.

Power Bubbles as a Promising Bacterial Deactivation Tool

Demonstrates bacterial inactivation through reactive oxygen species (ROS) generated by Power Bubbles, highlighting their potential for microbial control, water disinfection, and wastewater treatment.

Boosting Carbon Capture Efficiency: Optimized Soda Ash Production via Power Bubbles-Assisted CO₂ Absorption

Applies Power Bubbles to enhance CO₂ absorption and improve carbon capture efficiency.

Interpreting the Interfacial and Colloidal Stability of Power Bubbles

Explains zeta potential, electrostatic stabilization, and interfacial behaviour of Power Bubbles, providing insights into their surface charge, stability, and interactions within aqueous systems.

Advancing Power Bubbles-Assisted Crystallization as a Green and Sustainable Technology

Reviews Power Bubbles-assisted crystallization as a greener and more controlled approach to crystal production, highlighting its potential to improve crystallization efficiency, process control, and resource sustainability.

Power Bubbles Produced by Pawerpores to Probe Gas–Liquid Mass Transfer Characteristics

Demonstrates enhanced oxygen transfer using Power Bubbles, highlighting improved gas–liquid mass transfer and oxygen dissolution efficiency.

Ozone Power Bubbles Technology as a Novel AOP for Pollutant Degradation Under High-Salinity Conditions

Uses ozone Power Bubbles for efficient pollutant degradation in saline wastewater, highlighting their potential for advanced oxidation and treatment under high-salinity conditions.

Advanced oxidation of Arsenic(III) to Arsenic(V) using ozone Pawerbubbles under high salinity

Demonstrates the use of ozone Power Bubbles for arsenic oxidation in saline water treatment, highlighting their potential to improve arsenic conversion and support effective treatment under high-salinity conditions.

Bulk Power Bubbles from Acoustically Cavitated Aqueous Organic Solvent Mixtures

Demonstrates bulk Power Bubbles generation using acoustic cavitation, providing insights into bubble formation and generation mechanisms in aqueous organic solvent mixtures.

Power Bubbles by Hybrid Electro-Membrane Method: ROS Quantification and Utilization in Complex Wastewater Treatment

Introduces a hybrid electro-membrane method for generating reactive Power Bubbles, enabling controlled bubble formation and reactive oxygen species (ROS) generation for advanced wastewater treatment applications.

Does the Salting-Out Effect Nucleate Power Bubbles in Water?

Investigates spontaneous Power Bubbles nucleation through the salting-out effect, providing insights into gas solubility, bubble formation, and nucleation mechanisms in aqueous systems.

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