Imagine making hydrogen fuel using a device that doesn't rely on expensive, rare metals like gold or platinum. Instead, this project uses common minerals layered like a cake to speed up the chemical reaction. It's like replacing a pricey designer tool with a sturdy, cheap one that does the job just as well.
Current green hydrogen production relies on expensive noble metals and faces efficiency losses due to gas crossover and poor electrode stability, making large-scale deployment costly.
A zero-gap alkaline water electrolyzer using earth-abundant LDH catalysts and a Raman spectroscopy-based quality control method. The hardware scales from 5 cm² to a 300 cm² 6-cell stack.
If you are an electrolyzer manufacturer dealing with high costs of noble metal catalysts — this project developed earth-abundant LDH materials that offer a sustainable and cost-effective alternative. This allows for the production of a 6-cell stack of 300 cm² without relying on critical raw materials.
If you are an industrial gas supplier dealing with the need for scalable green hydrogen — this project developed a direct-growth catalyst method for porous transport electrodes. This enables the transition from small 5 cm² cells to larger 300 cm² stacks for commercial viability.
If you are an inspection firm dealing with the difficulty of measuring electrode degradation — this project developed a Raman spectroscopy method for precise stability determination. This provides a reliable quality control tool for both research and industrial production.
It replaces expensive noble metal-based catalysts with earth-abundant two-dimensional layered double hydroxides (LDH), which are cheaper and more sustainable.
The technology is scaled from single cells of 5 cm² and 25 cm² up to a 6-cell stack of 300 cm².
Based on available project data, there is no specific mention of IP or licensing terms, though the project is driven by an industrial-feasibility vision.
A reliable method based on Raman spectroscopy is developed to precisely determine electrode stability for quality control.
The project period runs from 2024-01-01 to 2026-12-31.
The consortium is heavily weighted toward commercial application, with a 60% industry ratio consisting of 3 industrial partners (including 1 SME) and 2 academic/research partners. This structure suggests a strong focus on translating lab-scale LDH synthesis into industrial-scale production, as evidenced by the kg-scale production already achieved by partner MATTECO.
Contact Universitat de Valencia regarding the LDH catalyst scale-up results.
Contact us to connect with the SEAL-HYDROGEN consortium for licensing earth-abundant catalyst technology.
