Fact Sheet – MefHySto
Hydrogen will play a major role in energy storage systems – the project will secure correct metrology of hydrogen and hydrogen blends
Experimental Volumetric Hydrogen Uptake Determination at 77 K of Commercially Available Metal-Organic Framework Materials
Storage is still limiting the implementation of hydrogen as an energy carrier to integrate the intermittent operation of renewable energy sources.
MefHySto at the GAS ANALYSIS 17.-20. May 2022 in Paris Nord Villepinte GLOBAL INDUSTRIE
After a three-year break due to the pandemic, international gas experts met again for the first time in Paris from 17-20 May for the 11th Gas Analysis 2022 conference.
Report of MefHySto in „gwf Gas + Energie“
We gladly announce that our project was recently presented in the journal: gwf Gas + Energie
MefHySto publishes open access paper
Second Paper published within the MefHySto Project.
Open access paper about Hydrogen Cryo-Adsorption Tanks
Cryoadsorption on the inner surface of porous materials is a promising solution for safe, fast, and reversible hydrogen storage. Within the class of highly porous metal−organic frameworks, zeolitic imidazolate frameworks (ZIFs) show high thermal, chemical, and mechanical stability
New Metrology for H2 Quality
Sustainability and dependability of fuel cells (FCs), which can be compromised by impurities present in hydrogen and air.
Metrology for Reversible H2 Storage Technologies
Exploring Underground Hydrogen Storage: The potential of utilizing geological cavities and formations for storing hydrogen and the feasibility of repurposing existing natural gas storage facilities to accommodate hydrogen storage needs.
Thermophysical properties of H2 and CH4/H2-mixtures
In the exploration of hydrogen’s thermophysical properties, the significance of accurate density measurements becomes evident. Equally important is the role Equations of State (EoS) play in modeling hydrogen’s behavior.
A database to select affordable MOFs for volumetric hydrogen cryoadsorption considering the cost of their linkers
Physical adsorption at cryogenic temperature is a reversible mechanism that can reduce the pressure of conventional compressed gas storage systems. Metal–organic framework (MOF) materials are remarkable candidates due to the combination of high specific surface area and density which, in some cases, provide a high volumetric storage capacity.