Influence of current density and inlet gas flow in the treatment of gaseous streams polluted with benzene by electro-absorption

Revolutionizing Lab‐Scale Electrochemical Reactors: Innovative Breakthroughs With 3D Printing Fabrication

“…In the field of electrochemistry, 3D printing has become increasingly useful, facilitating the construction of complex custom electrochemical devices, at reduced prices, with higher performance, versatile, sustainable, and more durable. In particular, 3D printing can be employed to produce electrodes, [45,46] electrochemical cells, [47–49] devices for electrochemical energy‐storage and conversion, [50,51] and sensors [52,53] . In this review, we highlight the fundamental role of 3D printing techniques in the design and fabrication of advanced architectures of electrochemical devices, and some reported works on 3D printing in different fields of electrochemistry are shown in Figure 2.…”

“…This is attributed to the close correlation between the mechanical design of the cell and its performance. In a work developed by Granados‐Fernández et al., they demonstrated that it is possible to design and build an electro‐absorption unit (Figure 3B) for the capture and subsequent degradation of benzene through SLA 3D printing, integrating two operations that are usually separated, thus saving space, material and simplifying the system [49] . In this case the degradation performance obtained is similar to those reported in the literature, so the innovation is the integration of 2 devices in 1.…”