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In recent years, hydrogen fuel cells have attracted significant attention as the next-generation energy conversion devices. For practical application of portable hydrogen fuel cells, the construction of systems, which can safely operate over long time periods and long distances, is crucial. Nevertheless, no safe hydrogen storage and transport methods have been established to date. Chemical hydrogen storage systems utilizing compounds with a high content of hydrogen are regarded as promising approaches for the storage and transport of the gas. The most commonly known compounds with a high hydrogen capacity include hydrous hydrazine, formic acid, and ammonia borane. These compounds release hydrogen using catalysts at near room temperature. Singh et al.1) described efficient generation of hydrogen from hydrous hydrazine using metal catalysts. On the other hand, Tedsree et al.2) reported that Ag–Pd coreshell catalysts considerably promoted generation of the gas from formic acid In addition, Himeda et al.3) and Mori et Efficient Hydrogen Generation from Ammonia Borane over Ru-Fe/ porous CeO2 Induced by Intrinsic Charge State and Self-organized Microstructure

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Efficient Hydrogen Generation from Ammonia Borane over Ru-Fe/porous CeO&lt;sub&gt;2&lt;/sub&gt; Induced by Intrinsic Charge State and Self-organized Microstructure