Space exploration, satellites, Spacecraft, energy genesis and storage systems constitutes an important focus and need, which requires enormous investment and highly decisive works to satisfy the well being of our nations. So, since many decades ago, the monopropellant hydrazine is utilized in the satellite lunch vehicles technology, specially, in the satellite motor thruster, where a well known metallic supported irridium catalyst plays a fantastic job to make this fuel decomposition. Experimental analysis shows that both monometallic (Ir/Al2O3) and bimetallic (Ir-Ru/Al2O3) catalytic behaviour is similar to that of shell 405 commercial catalyst for hydrazine monopropellant decomposition reaction in the satellite thruster. Also, diverse forms of Ir composite catalysts have been described as potential candidate for this catalytic decay reaction. But, the cost-effective catalysts is based on transition molybdenum metal materials, as it achieved higher catalytic performances for this special reaction. Here, a appreciable ways of molybdenum catalysts engineering are fully shown, which shows advanced properties of molybdenum based composite materials. Thus, allowing higher catalytic performance in the disintegration of hydrazine monopropellant in thruster technology. Also, good hydrazine oxidation reaction (HzOR) activity in fuel cell technology, efficient catalysts for hydrogen evolution (HER) through water splitting, and as well as environmental hydrazine sensing platform. Therefore, this Mo-based materials maybe the solver of many catalytic and environment issues via hybrid materials engineering.