Nitrogen fixation is a cornerstone of modern agriculture and industrial chemistry and revolves around the conversion of atmospheric nitrogen N 2 into ammonia NH 3 . Plants perform nitrogen fixation to produce nitrides for their own sustained survival through the intricate and complex mechanisms of nitrogenases. These enzyme catalysts are based on variations of an iron based cofactor combined with molybdenum or vanadium and we are yet to understand these mechanisms and replicate them into grand-scale ammonia synthesis . The current industrial standard for nitrogen fixation, the Haber-Bosch process, while effective, demands high energy inputs and operates under extreme conditions. In light of this, substantial effort has been made to search for more sustainable methods. Advances have been made within homogeneous and heterogeneous catalysis as well as photo-and electrocatalytic catalysis to address this challenge . Within efforts made towards finding homogeneous catalysts, transition metal complexes (TMCs) have shown significant promise due to their unique electronic properties and ability to coordinate with nitrogen molecules, and they offer a promising avenue for catalyzing nitrogen fixation under milder conditions. Particularly complexes involving molybdenum, iron, cobalt, and vanadium, have been identified as effective catalysts, offering insights into the mechanisms of nitrogen fixation and the design of more efficient catalytic systems. Molybdenum complexes have seen the most success so far with different types of reactions. Examples include homogenous catalysis via bridged dinitrogen compounds or direct cleavage of the dinitrogen in Mo N 2 Mo compounds . One of the most well known examples is the Schrock catalyst ([Mo( HIPT N 3 N)]) discovered in the early 2000s, which was shown to catalyze N 2