The Department “Reaction Kinetics” of IHE-3 focuses its scientific activities on investigations into the hydrogenation and dehydrogenation of hydrogen storage compounds. The objective of the work is to develop kinetic models that can be used in other departments at IHE-3 for optimized reaction control, apparatus design and apparatus layout. Challenges include the optimization and description of reactions with strong heat evolution/consumption and significant volume change under the dynamic requirements dictated by the fluctuating availability or demand for hydrogen. High innovation potential arises from the investigation of new hydrogen storage systems (e.g. CO2/dimethyl ether or lactone/diol systems), the use of newly developed catalyst systems (in collaboration with IHE-1 and IHE-2), the application of alternative methods of energy input, and the reaction engineering study of catalyst systems. The latter can be derived from the dynamic requirements resulting from scenario-specific and holistic simulations of hydrogen storage and transport processes (in collaboration with IHE-4).
Institute for a sustainable Hydrogen Economy (IHE)
Building Brainergy-Park-Jülich / Room T3.94
+49 2461/61-4499
E-Mail
Teams
Hydrogenation and Dehydrogenation under Dynamic Load
The Hydrogenation and Dehydrogenation under Dynamic Load team addresses reaction engineering issues arising from the dynamic requirements of hydrogen storage (fluctuating supply of renewable energy and thus green hydrogen) or hydrogen supply (e.g., hydrogen supply during periods of low wind and low sunlight).
Analytics for Hydrogen Storage Reaction Processes’
The Team ‘Analytics for Hydrogen Storage Reaction Processes’ deals with analytical issues relating to hydrogenation and dehydrogenation processes for chemical hydrogen storage, and questions of hydrogen purity and hydrogen origin.
The team ‘Activation, Stability and Regeneration’ deals with issues of catalyst preformation, catalyst performance over long-term operating periods and methods of catalyst regeneration from a reaction engineering perspective.