Central to RAISELIFE (CSP functional materials lifetime), COMPASsCO2 (materials for supercritical CO2 power plants), and topAM (ODS materials for high-temperature devices).
DECHEMA-FORSCHUNGSINSTITUT STIFTUNG
German research institute specializing in high-temperature materials, corrosion science, and advanced alloys for energy and manufacturing applications.
Their core work
DECHEMA-Forschungsinstitut (DFI) is a Frankfurt-based research institute specializing in materials science and electrochemistry for high-temperature and energy applications. They develop and test advanced alloys, coatings, and functional materials that withstand extreme conditions — from concentrated solar power plants to next-generation battery systems. Their work spans corrosion science, materials characterization, and computational materials design, with a growing focus on additive manufacturing of high-temperature components.
What they specialise in
RAISELIFE focused on raising lifetime of CSP functional materials; COMPASsCO2 targets components for advanced solar supercritical CO2 power plants.
topAM project specifically tailors ODS materials processing routes for additive manufacturing of high-temperature devices.
ALION project developed aluminium-ion rechargeable batteries for decentralized electricity generation.
topAM project explicitly lists computational materials science as a core activity alongside experimental work.
How they've shifted over time
DFI's early H2020 work (2015–2016) focused on electrochemical energy storage (aluminium-ion batteries in ALION) and extending the lifetime of functional materials for solar energy (RAISELIFE). From 2020 onward, their focus shifted decisively toward high-temperature materials engineering — supercritical CO2 power cycles, advanced alloy development, and additive manufacturing of heat-resistant components. The addition of computational materials science in their latest project signals a move toward simulation-driven materials design.
DFI is moving from purely experimental materials testing toward integrated computational-experimental workflows for designing materials that survive extreme thermal and corrosive environments.
How they like to work
DFI consistently participates as a specialist partner rather than leading consortia — all four H2020 projects are in the participant role. With 51 unique partners across 13 countries, they connect broadly across European research networks rather than working with a small recurring group. This pattern suggests they are sought after as a materials expertise provider: groups come to them when they need high-temperature corrosion testing, materials characterization, or alloy development.
DFI has collaborated with 51 distinct partners across 13 countries, indicating a well-distributed European network. Their partnerships span energy research centers, universities, and industrial players across the EU, with no single geographic cluster dominating.
What sets them apart
DFI sits at the intersection of materials science and energy technology — a combination that makes them valuable for any consortium developing hardware that must survive extreme heat, pressure, or corrosive conditions. Unlike university labs that publish and move on, DFI as a dedicated research institute offers continuity and deep infrastructure for long-term materials testing. Their recent addition of additive manufacturing and computational methods means they can now contribute from alloy design through to component fabrication.
Highlights from their portfolio
- COMPASsCO2Their longest-running project (2020–2025) targeting supercritical CO2 power plants — a next-generation energy technology requiring entirely new material solutions for extreme operating conditions.
- ALIONLargest single EC contribution (EUR 710,851) and an unusual departure into electrochemical storage, showing range beyond their core corrosion/materials work.
- topAMRepresents DFI's strategic pivot into additive manufacturing combined with computational materials science — signals their future direction.