Microfluidics is a multidisciplinary field based on the manipulation of fluids within channels with dimensions on the order of tens to hundreds of micrometers. In such microchannels, the behavior of a liquid is significantly different than at the macroscale due to the dominance of surface tension and viscosity, which allows precise prediction of the fluid flow . In these constrained environments, reactions are highly dependent on mass transport, and the control of mass transport in microfluidic devices through membranes has grown considerably over the last decade . On the one hand, microfluidics allows the miniaturization of a process as well as the acceleration of reactions, reduction of reagents, waste and cost, and optimization of energy and space . On the other hand, membranes are among the best technologies available in industrial waste management applications and filtration processes (e.g., biomedical , pharmaceutical , food , and metallurgy processes), allowing for modular and compact systems. Therefore, the combination of microfluidics and membrane technology can magnify their respective advantages providing more valuable solutions not only for industrial processes but also for reproducing biological processes.