Imagine a solar panel that doesn't just make electricity, but splits water into hydrogen gas directly using sunlight. Instead of using expensive precious metals, this uses a special sponge-like material to catch light and trigger the reaction. It's like upgrading a basic solar cell to a chemical factory that produces clean fuel.
Current green hydrogen production relies on expensive electrolysis and intermittent power grids, leading to high operating costs. Most hydrogen is still produced via carbon-heavy processes that conflict with 2050 net-zero goals.
Three lab-scale photocatalysis prototypes using fine-tuned Metal-Organic Frameworks (MOFs) and non-noble materials.
If you are a steel manufacturer dealing with high carbon emissions from coal-based processing — this project developed a photocatalytic system that produces high-purity green hydrogen to replace carbon-heavy fuels. This helps transition to a net-zero economy by 2050.
If you are an ammonia producer dealing with the high cost of carbon-intensive hydrogen — this project developed a non-noble material catalyst that aims for 5% solar-to-hydrogen efficiency. This reduces reliance on expensive electricity grids and carbon capture systems.
If you are a fuel provider dealing with the high operating costs of electrolysis — this project developed a direct sun-driven water splitting method. It provides a way to generate fuel with lower operating costs and higher purity.
The project aims to lower operating costs by using non-noble materials and direct sunlight, avoiding the high OPEX associated with intermittent electricity and CO2 capture.
Based on available project data, the project aims to reach TRL4, demonstrating three lab-scale prototypes rather than full industrial scale.
The project is built upon a breakthrough discovery that has been recently patented by ESPCI and UPV.
The project targets a world-record solar-to-hydrogen efficiency of 5%.
The project period runs from November 1, 2022, to April 30, 2026.
The consortium is research-heavy with 11 partners, including 6 universities and 2 research institutes. However, there is a significant industrial presence with 3 industry partners (27% ratio), indicating that the research is being guided by commercial viability and end-user requirements from the start.
Contact ESPCI (Ecole Supérieure de Physique et de Chimie Industrielles de la Ville de Paris)
Contact us to explore licensing opportunities for the patented MOF catalysts.
