Although HTE using SDC is widespread in catalysis and corrosion studies , it has not yet been widely proliferated in the field of batteries. The reason is that many adaptations and optimizations are necessary which are herein demonstrated and discussed. For example, conventional battery research should be carried out in an oxygen-and moisture-free atmosphere, which requires housing the device into a dry and inert glovebox. This adaptation has been successfully demonstrated in one of the few SDC publications for battery research by Dieckhöfer et al. . However, some other reasons have not been discussed yet, such as the different physicochemical properties of the media. Catalysis and corrosion research using SDC is mostly performed in aqueous media where the measurement protocols and standard materials (e.g. droplet formation reproducibility and reference electrode (RE) materials) are well-established. In addition, the surface properties of catalysts, such as open circuit potential (OCP) or oxygen reduction or evolution reactions (ORR, OER) potential are of the greatest interest and value to the scientific community, whereas in batteries both bulk and surface properties are important. The investigation of the bulk properties requires longer experimental times and the knowledge of extensive (scalable, e.g., mass of active material or wetted area of the measurement point) parameters, which increases the probability of error, and might additionally cause reproducibility and stability issues for multiple sequential measurements. The correct calculation of specific or areal capacity and energy from chronopotentiometry (CP), ionic conductivities from electrochemical impedance spectroscopy (EIS) or current densities from cyclic voltammetry (CV) requires a consistent wetted area within the experimental sequence.