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Field
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Are you intrigued by how you can shape the energy transition by scale up of green electricity based large-scale energy storage via CO2 capture and dynamic conversion with hydrogen from electrolysis
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challenging at temperatures approaching 20 K. Develop new methods to reveal how aerospace materials deform and become damaged under cryogenic and dynamic loading. Your research will contribute to safer hydrogen
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protective or hydrogen atmospheres Characterization of the microstructure, phase composition and surface quality of the coated layers
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a techno-economic analysis, you will evaluate the planned data center. The innovative technological concept for optimizing computing power integrates both batteries and the use of hydrogen
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, for green hydrogen production, highly efficient metal halide perovskite-based photovoltaics and, of course, high energy density and safer batteries for e-mobility . You will work in a highly collaborative
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hydrogen storage, downstream processes, and energy demand, to enable more efficient, flexible, and economically viable Power-to-X operation. This position is expected to start from 1st of November 2026 or as
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includes secondments at TU Darmstadt, focused on computational modelling, and ENGIE, focused on the application and techno-economic assessment of hydrogen/ammonia blends for power generation. The secondment
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, power conversion, energy and hydrogen storage, downstream processes, and energy demand, to enable more efficient, flexible, and economically viable Power-to-X operation. This position is expected to start
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the large-scale deployment of hydrogen. Central to the performance of these systems is the ion-conducting membrane, which governs ionic transport, efficiency, durability, and operating conditions. Currently
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-efficient thin film electrocatalysts based on earth-abundant elements for hydrogen evolution reaction (HER) and oxygen evolution reaction (OER) aimed at anion exchange membrane (AEM) electrolyzers. Thin film