Hydrazine is also described as a potential hydrogen carrier through its hydrolysis, hydrogen gas can be acquired as shown in Wang, Y., et al's research paper . Where, in-situ melt-quenching method is used to prepare Mo doped Ni-based catalysts for both decomposition of ammonia borane (AB) and hydrazine to generate hydrogen. Specially, the introduction of Mo was found to enhance the reducibility of Ni, which significantly boosts the performance of Mo-Ni catalyst. So, the Mo-Ni catalyst revealed more than 6 times higher TOF value as compared to that of unmodified Ni in both AB and N2H4 hydrolysis. A group of researchers showed some ways of liquid-phase chemical generation and storage of hydrogen. Among these chemicals hydrous hydrazine is listed and they are considered as a fortunate hydrogen storage material based on their comparatively higher hydrogen content. Moreover, a series of prepared Rh-MoOx NPs is reported from Yao, Q., et al's research team as a powerful catalyst for hydrogen release from both hydrous (8 wt%) and borane (15.4 wt%) hydrazine. Under 323 K in alkaline nature, with the action of the optimized Rh0.5MoO0.5 NPs (1:1) catalyst, a highest catalytic performances was achieved with 100% selectivity of H2 release from both chemical reactants. So, a turnover frequency of 750 and 2000 h -1 are reached from hydrazine borane and hydrous hydrazine hydrolysis respectively. So, as known, noble metals possess good catalytic features but some issues hindered their large technological applications. Consequently, a large need on engineering of actively earth abundant and cost-