By: Yelwa Jibrin
National Research Institute for Chemical Technology, Old Kano Road, Basawa, Zaria, Kaduna State, Nigeria.
This study explores the potential of beryllium (Be) and transition metal (TM) complexes in hydrogen storage and production, focusing on the hybridization of atomic orbitals to form dihydrogen complexes within nanostructured materials. We analyze the binding energies and adsorption characteristics of Hâ‚‚ molecules in Be-dihydrogen complexes and compare them with TM-dihydrogen complexes. The findings indicate that Be can effectively bind Hâ‚‚ at room temperature, making it a promising candidate for hydrogen storage applications. Furthermore, the synthesis of RuBe nanosheets demonstrates enhanced catalytic activity for alkaline hydrogen evolution, providing insights into efficient hydrogen production methods. Additionally, we introduce a speckle suppressor device employing nanoberyllium to improve X-ray imaging, showcasing the multifunctionality of beryllium in advanced material applications. This work offers valuable perspectives for future research into hydrogen storage and production technologies, emphasizing the significance of nanostructured materials in energy applications.
Citation:
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