Summary
Electrolysis technologies are pivotal in accelerating the transition from fossil fuels to renewable energy. Among them, proton exchange membrane (PEM) electrolyzers, currently stand at an installed capacity of 0.92 GW and continue to grow, in view of their desirable performance traits such as high operating currents and fast response.
However, their reliance on perfluorinated materials such as Poly(Trifluoroethenesulfonyl Fluoride) (C2F4O2S)n for core parts (membrane and catalyst binder), and critical raw materials (iridium and platinum for catalysts), raises environmental concerns due to the recycling challenges of forever chemicals –the EU weighs a complete ban for forever chemicals such as Perfluoroalkyl and Polyfluoroalkyl Substances (PFAS), and cost. The reliance on noble metal catalysts, especially iridium, does not contribute to high capital costs, but poses scalability concerns due to the extremely limited availability of iridium. Overall, these hinder the sustainability prospects of PEM technologies at scale, and their widespread commercialization. These underscore the pressing need for innovative strategies to realize sustainable and efficient electrolyzers.
VITAL (Cost-effectiVe materIals for susTainAble eLectrolyzers) addresses these challenges through the development of novel, fluorine-free membranes, integrated with cost-effective, non-critical raw materials. VITAL aims to demonstrate electrolyzer systems for H2 generation which combine sustainable scalability and performance. VITAL innovation relies on the development of fluorine-free membrane electrode assemblies, implemented through a recyclable olefin polymer membrane paired with in situ grown catalysts; free of platinum group metals (PGMs), and designed to achieve competitive performance for H2 electrosynthesis. This project addresses the need for scalable and sustainable electrolysis, vital in the shift towards renewable energy sources, and reducing fossil fuel dependency.
However, their reliance on perfluorinated materials such as Poly(Trifluoroethenesulfonyl Fluoride) (C2F4O2S)n for core parts (membrane and catalyst binder), and critical raw materials (iridium and platinum for catalysts), raises environmental concerns due to the recycling challenges of forever chemicals –the EU weighs a complete ban for forever chemicals such as Perfluoroalkyl and Polyfluoroalkyl Substances (PFAS), and cost. The reliance on noble metal catalysts, especially iridium, does not contribute to high capital costs, but poses scalability concerns due to the extremely limited availability of iridium. Overall, these hinder the sustainability prospects of PEM technologies at scale, and their widespread commercialization. These underscore the pressing need for innovative strategies to realize sustainable and efficient electrolyzers.
VITAL (Cost-effectiVe materIals for susTainAble eLectrolyzers) addresses these challenges through the development of novel, fluorine-free membranes, integrated with cost-effective, non-critical raw materials. VITAL aims to demonstrate electrolyzer systems for H2 generation which combine sustainable scalability and performance. VITAL innovation relies on the development of fluorine-free membrane electrode assemblies, implemented through a recyclable olefin polymer membrane paired with in situ grown catalysts; free of platinum group metals (PGMs), and designed to achieve competitive performance for H2 electrosynthesis. This project addresses the need for scalable and sustainable electrolysis, vital in the shift towards renewable energy sources, and reducing fossil fuel dependency.
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/101150688 |
| Start date: | 01-04-2024 |
| End date: | 31-03-2026 |
| Total budget - Public funding: | - 181 152,00 Euro |
Cordis data
Original description
Electrolysis technologies are pivotal in accelerating the transition from fossil fuels to renewable energy. Among them, proton exchange membrane (PEM) electrolyzers, currently stand at an installed capacity of 0.92 GW and continue to grow, in view of their desirable performance traits such as high operating currents and fast response.However, their reliance on perfluorinated materials such as Poly(Trifluoroethenesulfonyl Fluoride) (C2F4O2S)n for core parts (membrane and catalyst binder), and critical raw materials (iridium and platinum for catalysts), raises environmental concerns due to the recycling challenges of forever chemicals –the EU weighs a complete ban for forever chemicals such as Perfluoroalkyl and Polyfluoroalkyl Substances (PFAS), and cost. The reliance on noble metal catalysts, especially iridium, does not contribute to high capital costs, but poses scalability concerns due to the extremely limited availability of iridium. Overall, these hinder the sustainability prospects of PEM technologies at scale, and their widespread commercialization. These underscore the pressing need for innovative strategies to realize sustainable and efficient electrolyzers.
VITAL (Cost-effectiVe materIals for susTainAble eLectrolyzers) addresses these challenges through the development of novel, fluorine-free membranes, integrated with cost-effective, non-critical raw materials. VITAL aims to demonstrate electrolyzer systems for H2 generation which combine sustainable scalability and performance. VITAL innovation relies on the development of fluorine-free membrane electrode assemblies, implemented through a recyclable olefin polymer membrane paired with in situ grown catalysts; free of platinum group metals (PGMs), and designed to achieve competitive performance for H2 electrosynthesis. This project addresses the need for scalable and sustainable electrolysis, vital in the shift towards renewable energy sources, and reducing fossil fuel dependency.
Status
SIGNEDCall topic
HORIZON-MSCA-2023-PF-01-01Update Date
22-11-2024
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