Chemical synthesis organometallic chemistry

The problems addressed by inorganic chemistry continue to be challenges well into the twenty-first century. For example, coordination chemistry will continue to provide compounds with unusual properties and uses, and will become an increasingly important component in bioinorganic chemistry. Organometallic chemistry will continue as one of the most active areas of catalysis research, especially in the chemical, energy, pharmaceuticals, and pollution control industries. New methods to meet the needs of the production of inorganic chemicals will involve environmental friendly synthesis (Navratil, 1998). 

The past four years have been characterized by more and more diverse applications of aqueous organometallic chemistry for the synthesis of fine chemicals. Useful classical transformations have been realized in aqueous solutions. The recycle of the transition metal catalyst has sometimes been possible, but the main importance at this early stage lies in the reactions themselves. 

It is an axiom of modern organometallic chemistry that the pursuit of late transition metal complexes is ultimately driven by the need to formulate ever more efficient catalysts and reagents for chemical synthesis. In this respect, the field of poly(pyrazolyl)borate chemistry is no different from any other, albeit that in the case of the group 10 triad the breadth of study is perhaps more limited than for other metals and/or ligands. This section provides an overview of prominent results in respect of both catalysis and the C—H activation processes that underpin them. 

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