Al‐Shameri, AmmarPetrich, Marie‐Christinejunge Puring, KaiApfel, Ulf‐PeterNestl, Bettina M.Lauterbach, Lars2020-11-162020-11-162020-04-280044-8249https://depositonce.tu-berlin.de/handle/11303/11973http://dx.doi.org/10.14279/depositonce-10855We have developed a scalable platform that employs electrolysis for an in vitro synthetic enzymatic cascade in a continuous flow reactor. Both H2 and O2 were produced by electrolysis and transferred through a gas‐permeable membrane into the flow system. The membrane enabled the separation of the electrolyte from the biocatalysts in the flow system, where H2 and O2 served as electron mediators for the biocatalysts. We demonstrate the production of methylated N‐heterocycles from diamines with up to 99 % product formation as well as excellent regioselective labeling with stable isotopes. Our platform can be applied for a broad panel of oxidoreductases to exploit electrical energy for the synthesis of fine chemicals.en540 Chemie und zugeordnete Wissenschaftenelectrochemical biocatalysishydrogenasesimine reductasesisotopic labelingN-heterocyclesPowering Artificial Enzymatic Cascades with Electrical EnergyArticle2020-11-021521-3757