Solar and Carbon solutions

We are developing an AI-enabled, wind turbine-driven Air Water Harvester (AWH) to clean photovoltaic panels in arid regions, significantly improving efficiency without relying on external water sources. Additionally, we are exploring the use of nano paints to increase solar panel efficiency by up to 7%, repelling dust and water to maintain optimal performance, particularly in dusty or coastal environments.,

Our CO2 to Carbon Mineralisation Technology captures atmospheric CO2 and converts it into stable carbon minerals for use in construction and soil amendments. These advancements have the potential to significantly contribute to market solutions for renewable energy efficiency and carbon emission reduction.

Self-cleaning solar panels

Our project involves developing self-cleaning solutions for photovoltaic panels. This innovation addresses the accumulation of dust particles, which significantly reduces panel performance, especially in remote and water-stressed areas like deserts. The proposed AI-enabled, wind turbine-driven Air Water Harvester (AWH) operates in three modes based on dust levels, generating over 2 litres of water daily with minimal energy consumption. This system not only cleans the panels effectively but also improves their performance without relying on external water sources, making it highly suitable for commercialisation in arid regions.

Nano paints

Another development is the use of nano paints for solar panel coatings. Southern Nanotech is researching various nano paint compounds that can enhance the efficiency and durability of photovoltaic panels by reducing reflection and repelling dust and water. These transparent nano paints have demonstrated up to a 7% increase in panel efficiency by allowing more sunlight absorption. The smooth surface created by these paints repels particles, reducing shading and maintaining higher efficiency levels. This technology is particularly pertinent for solar arrays in dusty or coastal environments, offering a cost-effective solution for maintaining panel performance.

CO2 mineralisation

The development of CO2 to Carbon Mineralisation Technology represents a breakthrough in addressing climate change. This technology captures atmospheric CO2 and converts it into stable carbon minerals using magnesium and calcium-based rocks, mimicking natural geological processes. The project includes developing efficient CO2 capture systems, designing mineralization reactors, and conducting ongoing research to enhance conversion rates. The resulting carbonates have practical applications in construction and soil amendments, offering a scalable solution for reducing global CO2 emissions. The commercialisation potential of this technology lies in its applicability across various industries, contributing to global efforts in mitigating climate change.

Academic Articles

The below academic articles relating to our research is available for those who want to better understand the potential of our work.