In recent years, electrosynthesis has emerged as a highly promising strategy for chemical synthesis. Due to the tunable nature, electrosynthesis can offer synthetic avenues with new reactivity and selectivity compared to traditional strategies. Furthermore, the use of (renewable) electricity to drive chemical transformations can result in sustainability benefits such as higher atom economy, less chemical waste, lower energy consumption and improved safety. Electrochemically driven transformations can proceed via electron transfer to or from an organic substrate at the electrode surface (direct electrolysis) or in solution via a redoxactive catalyst that is (re)generated at the electrode (indirect electrolysis). The electrode at which a targeted transformation occurs is denoted as the working electrodee.g., the anode in an electrooxidative reactionand the opposite electrode is called the counter electrode. To close the circuit in an electrochemical setting, the net number of electrons needs to be balanced between anode and cathode.