We observed that the heating became more uniform and faster, thereby increasing the thermal/kinetic effects in the case of microwave coupling in chemical processes as a heating strategy, when compared to conventional heating. Consequently, this decreases the processing time and provides energy savings . As a result, this strategy based on microwave-assisted synthesis leads to a significant increase in reaction kinetics by at least two orders of magnitude . It should be considered that accelerated microwave heating depends on various physicochemical parameters of the species involved (i.e., liquids and solids) that make up the reaction medium, the nature of electromagnetic radiation, as well as the instrumental design .