In recent years, metal-organic frameworks (MOFs) have significantly contributed to broadening the frontiers of science. Due to their distinctive properties including well-developed surface area, high porosity, multifarious composition, tunable and uniform pore structures, and comprehensive functionality, they were applied in different fields such as separation, drug delivery, fuel storage, chemical sensing, and catalysis. The application of pristine MOFs as materials that speed up the reaction rate could be restricted mainly because of the limited number of active sites and their low mechanical and thermal stability. In order to enhance their catalytic properties, metalorganic frameworks can be functionalized or integrated with a variety of materials to obtain composites or hybrids. The review outlines the state of art concerning the application of MOFs and their composites as catalysts in various organic transformation processes. A particular focus was given to the oxidation of alkanes, cycloalkanes, alkylbenzenes, alcohols, thiols, sulfides. Furthermore, the role of metalorganic frameworks in hydrogenation and C–C coupling reactions were also presented.
Keywords: Alkanes, Alkenes, Brønsted acid sites, Catalysis, C–C coupling reactions, Composites, Hybrids, Hydrogenation, Lewis acid sites, Linkers, Metal nodes, Metal–organic frameworks, MOF, MOF active sites, MOF stability, Oxidation, Reduction, Sulfides, Thiols.