PowerCell Group has secured a contract valued at approximately SEK 21 million from the German Aerospace Center (DLR) to deliver an integrated Fuel-to-Power system for installation at DLR's maritime testing facility in Kiel, Germany. The project marks another step toward advancing clean energy solutions for the maritime industry and highlights the growing role of fuel cell technologies in reducing shipping emissions.
Under the agreement, PowerCell will supply two Marine System 225 fuel cell units, two methanol reformers, hydrogen buffer storage, gas-mixing equipment, and an integrated control system. The company expects to complete deliveries during the fourth quarter of 2026, while commissioning of the complete installation is scheduled for the first half of 2027.
The integrated solution is based on PowerCell's established M2Power platform, which has been customized to meet the operational requirements of DLR's research program. The system converts methanol into hydrogen through reforming technology before feeding the hydrogen into proton exchange membrane (PEM) fuel cells to generate electricity. This configuration enables efficient energy production while demonstrating how standardized fuel cell technology can be adapted for specialized applications.
DLR will use the facility to simulate operational conditions encountered by various vessel categories, ranging from stable cruising operations to rapidly changing power demands. The research will generate valuable performance data and operational insights that can accelerate the adoption of hydrogen fuel cells in commercial maritime applications. The initiative is part of the zero4cruise project, supported by the German Federal Ministry for Economic Affairs and Energy, which aims to promote low-emission technologies for the shipping sector.
PowerCell CEO Richard Berkling stated that the collaboration demonstrates how standardized industrial platforms can be integrated with different fuel pathways to create tailored energy solutions for maritime customers. He added that the knowledge generated through the project will support wider deployment of fuel cell systems for onboard propulsion, auxiliary power generation, and port-side electricity supply.
DLR Institute Director Sören Ehlers explained that the new testing platform replicates real maritime operating environments, allowing researchers to evaluate fuel cell performance under both constant and dynamic load conditions. The resulting data will help industry partners better understand system behavior and support future commercial implementation.
The project also incorporates methanol reforming technology developed by MReformer, whose Managing Director Xavier Torres emphasized that combining methanol reformers with PEM fuel cells provides an opportunity to evaluate integrated clean-energy systems under representative maritime conditions. He expressed confidence that the collaboration will contribute to broader commercialization of methanol-based fuel cell technologies for the shipping industry.
The contract reinforces PowerCell's position in the growing maritime decarbonization market while demonstrating increasing industry interest in integrated methanol-to-hydrogen fuel cell systems as a practical pathway toward cleaner marine transportation.
Impact on Products and Chemanalyst Chemical Commodity Prices
The project is expected to strengthen demand for green methanol, hydrogen, PEM fuel cell components, catalysts, membrane materials, and specialty engineering materials used in integrated Fuel-to-Power systems. As maritime companies increasingly evaluate methanol-based fuel cells, suppliers across the hydrogen value chain could benefit from higher investment and technology adoption. However, the order size remains relatively small, limiting any immediate effect on global chemical markets. Consequently, ChemAnalyst-tracked commodities such as methanol, hydrogen, platinum-group catalysts, engineering polymers, and specialty chemicals are unlikely to experience significant short-term price changes. Over the longer term, broader commercialization could gradually support demand and improve pricing fundamentals for clean-energy-related chemicals.
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