Germany is moving deeper into the industrialization phase of sustainable aviation fuel production, committing €350 million in public funding to the Brandenburg eSAF project in Schwedt as the European aviation sector faces binding fuel decarbonization mandates under the EU’s ReFuelEU Aviation framework.
The project, led by ENERTRAG and ZAFFRA, represents a total investment exceeding €500 million and is designed to produce more than 30,000 tonnes of electric sustainable aviation fuel annually from 2030. Located at the PCK refinery site, the facility is expected to cover roughly 25 percent of Germany’s projected eSAF blending requirement under the EU mandate, making it one of the most strategically significant Power-to-Liquid aviation fuel projects currently under development in Europe.
The scale of public support illustrates how dependent synthetic aviation fuel projects remain on state intervention. The combined federal and Brandenburg state funding package constitutes the largest public subsidy awarded to a European Power-to-Liquid project to date, highlighting the persistent cost gap between eSAF and conventional fossil based jet fuel.
That gap remains one of the sector’s central structural challenges. Synthetic aviation fuels produced through renewable hydrogen and captured carbon dioxide pathways continue to face production costs several times higher than conventional kerosene, largely due to the energy intensity of electrolysis, renewable electricity requirements, and limited economies of scale in current PtL infrastructure.
The Schwedt facility will use renewable electricity to power hydrogen electrolysis before combining the hydrogen with biogenic carbon dioxide through Fischer Tropsch synthesis. The project developers state that the resulting fuel can reduce lifecycle greenhouse gas emissions by more than 90 percent relative to conventional aviation fuel while remaining fully compatible with existing aircraft under ASTM certification standards.
However, lifecycle emissions performance depends heavily on the carbon intensity of the electricity input and the sourcing pathway for carbon dioxide. The project plans to source biogenic CO₂ from LEIPA Georg Leinfelder, while hydrogen will largely be supplied through the hydrogen core network via Gascade’s FLOW pipeline, supplemented by on site electrolysis capacity.
The reliance on hydrogen infrastructure underscores how eSAF deployment is becoming increasingly interconnected with Europe’s broader hydrogen economy ambitions. Synthetic aviation fuel production requires large volumes of low carbon hydrogen, meaning project economics are directly linked to the pace of renewable energy expansion, electrolyzer deployment, and hydrogen transport infrastructure development across the continent.
The project also reflects Germany’s attempt to reposition legacy industrial regions within the energy transition. Schwedt has long been associated with conventional oil refining, and the Brandenburg eSAF initiative is being framed not only as a climate project but as an industrial continuity strategy aimed at preserving employment and infrastructure relevance as fossil fuel demand patterns evolve.
Developers estimate the facility will create approximately 150 permanent skilled jobs and up to 1,500 construction phase jobs across the region. While modest relative to the broader scale of Germany’s industrial workforce, the employment component is politically significant given concerns surrounding industrial competitiveness, deindustrialization risks, and energy price pressures in Europe.
The partnership structure itself reflects the increasing complexity of synthetic fuel project development. Topsoe and Sasol contribute technology through the ZAFFRA joint venture, combining Fischer Tropsch expertise with Topsoe’s eREACT technology platform. ENERTRAG provides renewable energy and hydrogen integration capabilities, while engineering studies are being led by Griesemann Group.
The project timeline remains ambitious. A final investment decision is targeted for the end of 2027, with production scheduled to begin in 2030. That leaves a relatively narrow window for securing engineering execution, infrastructure integration, permitting alignment, and long term renewable electricity supply under a market environment where capital costs and industrial input prices remain volatile.
The economics of eSAF production are also highly sensitive to future electricity pricing. Synthetic fuel pathways require substantial renewable power input, and Germany continues to face structural electricity cost challenges relative to several competing industrial regions globally. Even with public funding support, long term competitiveness will likely depend on whether renewable generation capacity can expand quickly enough to stabilize power costs for energy intensive industrial processes.
