Keywordshydrogen; hydride; sodium borohydride; hydrogen storage; metal borohydride; hydrogen storage; eutectic melting; chemical hydrogen storage; hydrazine borane; hydrazinidoborane; hydrolysis; thermolysis; in situ studies; neutron powder diffraction; metal hydrides; lanthanum; magnesium; activated carbon; hydrogen storage; spillover effect; amorphous membranes; hydrogenation; elastic modulus; X-ray diffraction (XRD); differential thermal analysis (DTA); thermogravimetric analysis (TGA); MgH2-based hydride; hydrolysis; hydrogen generation; composites; complex hydride; borohydride; isotopic exchange; hydride composites; hydrogen storage; hydrogen storage; amide-hydride system; sorption kinetics; Li2BNH6; metal borohydride; perovskite; ammonium; ammonia-borane; protic-hydridic; hydrogen storage; metal hydrides; thermal energy storage; hydrogen storage; hydrogen diffusion rate; thermal conductivity; scale-up; solar technologies; aluminum; amidoborane; boranes; dehydrogenation; hydrogen storage; synthetic methods; Nuclear Magnetic Resonance Spectroscopy (NMR); cobalt additives; hydrogen storage; in-situ; magnesium borohydride (Mg(BH4)2); X-ray absorption spectroscopy (XAS); synchrotron X-ray diffraction; thermal decomposition; dodecaborate; borohydride; hydrogen storage; hydrogen; magnesium hydride; magnesium fluoride; hydrogen storage; metal hydrides; kinetics; n/a
