Despite significant progress in the field of electrosynthesis, advances in anodic oxidations far outpace advances in cathodic reductions. In part, this disparity can be attributed to the wide array of oxidizing redox mediators (i.e., cyclopropeniums, N-oxyl radicals, triarylamines, halogenide salts, and metal salts ) that are available compared to reducing redox mediators, which are generally limited to Ni-salen, Co-salen, fullerenes, and aromatic hydrocarbons. Anodic oxidations are also conveniently paired with the hydrogen evolution reaction (HER) as the supporting half reaction, while cathodic reductions typically make use of a sacrificial anode, a component that is susceptible to passivation or results in the introduction of unwanted chemical species. In addition, cathodic reductions often require electrode potentials far beyond the formal potential for proton and water reduction, requiring dry organic solvents and maintaining a moisture-free environment. This report offers a simple electroorganic synthesis strategy to address all of these concerns.