Press / Publications

When water samples are tested for microbiological contamination today, the process still often begins and ends in a laboratory: collect the sample, transport it, analyze it, and wait for the result. Fraunhofer IMM’s InBaDtec platform is designed to fundamentally change exactly this workflow. The system brings the analysis to where it is needed – directly to the point of use.

An engine powered exclusively by ammonia, without blending in fossil energy sources: Fraunhofer Institute for Microengineering and Microsystems IMM will present the core technology behind this breakthrough at Hannover Messe 2026. The successful implementation is the result of several years of development work for First Ammonia Motors and marks a milestone for more climate-friendly propulsion technologies. Excerpts from the test-drive video will be shown at the exhibition stand.

In vertical hydroponic systems, plants literally grow upward—without soil, with controlled fertilizer input, and in a water-saving setup. As cities continue to expand, agricultural land becomes scarcer, and climate change progresses, new forms of cultivation are coming into focus. One of these is vertical hydroponic farming: plants are grown on multiple stacked levels, not in soil but in a circulating nutrient solution. This saves space, enables short transport routes, and allows crops to be supplied very precisely. Together with an international consortium, the Fraunhofer Institute for Microengineering and Microsystems IMM developed a multi-ion monitoring system designed to automatically control nutrient input in such closed-loop systems, making the use of water, fertilizer, and other operating resources more efficient.

Klaus Kögler’s work in the field of bioprinting contributes to the development of high-precision single-cell bioprinting towards an industrially viable solution.

State Secretary Matthias Hauer presents funding approval for the InnoWaerm project at Fraunhofer ILT. The project, funded by the Federal Ministry of Research, Technology and Space (BMFTR) with approximately 1.5 million euros, develops high-temperature-resistant lightweight reactors made from titanium aluminide that can be manufactured using additive manufacturing. They are intended to generate hydrogen directly on board aircraft, agricultural machinery, or heavy-duty vehicles.

Jan Zimmer´s work in the field of nanodmedicine, contributes to the development of innovative biomaterials for targeted drug delivery and offers promising approaches for future therapeutic applications in gene therapy and cancer research.

The Fraunhofer Institute for Microengineering and Microsystems IMM will par-ticipate as an exhibitor at the international trade fair Hyvolution 2026. The three-day leading event for the hydrogen sector will take place from January 27 to 29, 2026, at Paris Expo Porte de Versailles. The Fraunhofer IMM team will welcome trade visitors at booth N47 in Hall 1, where it will showcase its latest solutions for hydrogen production and power-to-gas processes.

After two years of research and development work, the German-Chilean Power-to-MEDME-R&D project has been successfully completed. The Fraunhofer Institute for Energy Economics and Energy System Technology IEE and its project partners have developed key technological, economic, and systemic foundations for the sustainable production of green hydrogen and its derivatives methanol and dimethyl ether (DME) in Chile. The results show that Chile offers excellent conditions for cost-efficient, cli-mate-neutral production with a high potential for local use and export in an interna-tional comparison.

The team of authors received the GMM Literature Prize 2025 for their publication on a novel system for real-time analysis of nanoparticles during their synthesis. The prize was presented to the lead author, Ebrahim Taiedinejad, at the MikroSystemTechnik Kongress 2025.

With flowDLS, Fraunhofer IMM has developed a system based on dynamic light scattering (DLS) that measures particle sizes in real time. What makes flowDLS special? Read more in our Newsletter "FlowDLS: Real-time precision in nanoparticle analysis".