Imagine a giant industrial oven used to make hydrogen, but instead of burning gas to heat it, it uses electric heating elements like a high-tech toaster. This makes the process much smaller and way more efficient. It turns biogas or methane into ultra-pure hydrogen using very little space.
Traditional steam methane reforming relies on gas-fired heat boxes that are bulky and energy-inefficient. This creates high carbon footprints and limits the feasibility of small-scale, decentralized hydrogen production.
A 250 kW electrically heated reactor (SYPOX technology) with a tailored catalyst and a full reforming skid for hydrogen production.
If you are a biogas plant operator dealing with inefficient hydrogen extraction — this project developed a 250 kW electrified reactor that produces 400 kg/day of 99.999% pure H2. This allows for decentralized production of renewable hydrogen with energy efficiency close to 95%.
If you are a chemical manufacturer dealing with high carbon emissions from gas-fired heat boxes — this project developed an electrically heated reactor that is two orders-of-magnitude smaller than traditional units. It provides a path to decarbonize existing plants by replacing gas heating with electricity.
If you are an equipment supplier dealing with the need for compact, scalable hydrogen skids — this project developed a reforming skid based on SYPOX technology. The design allows for power increases via parallelization and conceptual scale-up for capacities over 20 MW.
Based on available project data, specific pricing or cost per unit is not provided.
Yes, the design allows for power increases through parallelization, with conceptual scale-up targeted for capacities exceeding 20 MW electrical input.
Based on available project data, specific IP and licensing terms are not detailed in the provided summary.
The technology is designed as a reforming skid, making it suitable for both new decentralized markets and the decarbonization of existing centralized reforming plants.
The project runs from June 1, 2022, to November 30, 2025.
The consortium is heavily industry-driven, with 13 industrial partners (68% of the group) and 6 SMEs, indicating a strong push toward commercialization. With 19 partners across 8 European countries, the project combines academic research from 4 universities and 2 research institutes with practical industrial application.
Contact Technische Universität München for technical specifications on the SYPOX reactor.
Contact SciTransfer to connect with the EReTech consortium for licensing or pilot partnerships.
